Bidjad Arigue | Architecture | Young Scientist Award Published on 29/11/202529/11/2025 by Environmental Scientists Dr. Bidjad Arigue | Architecture | Young Scientist Award Assistant Researcher | University Mohamed khider of Biskra | Algeria Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Dr. Bidjad Arigue is an emerging researcher in architecture and environmental design whose work reflects a strong commitment to sustainable development, vernacular heritage preservation, and innovative building envelope strategies adapted to arid climates. With citations numbering 5 and an h-index of 1, his growing academic contribution demonstrates a developing but meaningful impact in the fields of ecological architecture and climate-responsive design. His research background has shaped a deep understanding of architectural design processes, energy-efficient construction methods, and environmentally adaptive approaches inspired by traditional North African and Saharan contexts. He has contributed to numerous scientific conferences and collaborative studies examining thermal performance, ecological construction, urban heritage conservation, and the integration of smart and contemporary materials within building façades. His publications explore essential themes such as climatic adaptation in ksourian architecture, recognition and preservation of historic environments, vernacular envelope strategies, double-skin façade innovations, and sustainability-driven frameworks aimed at improving the environmental performance of buildings in hot, dry regions. Through interdisciplinary collaborations, he investigates how insights from vernacular dwellings can guide modern architectural practices toward reducing energy consumption, enhancing indoor comfort, and supporting sustainable urban development. His work also addresses participatory planning, cultural architectural identity, and the future potential of green construction materials for next-generation ecological building design. In parallel with his scientific activities, he demonstrates strong competencies in digital modeling tools, architectural project coordination, creative problem-solving, and effective multilingual communication. Overall, he represents a promising new voice in environmentally responsive architecture, contributing valuable insights that bridge traditional knowledge, modern innovation, and sustainability-centered design. Profile: Orcid | Google Scholar
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Featured Publications Arigue, B., Sriti, L., Giovanni, S., Khadraoui, M. A., & Bencheikh, D. (2023). Exploring the cooling potential of ventilated mask walls in neo-vernacular architecture: A case study of André Ravéreau’s dwellings in M’zab Valley, Algeria. Buildings, 13(4), 837. Mekki, S., Arigue, B., Giovanni, S., Sriti, L., Pace, V., & Leporelli, E. (2025). Tracing the morphogenesis and formal diffusion of vernacular mosques: A typo-morphological study of Djebel Amour, Algeria. Buildings, 15(23), 4277. Arigue, B., Rahmani, S., Ayadi, N. E., Sriti, L., & Kaoula, D. (n.d.). Towards the ecological construction of building envelopes: A promising approach inspired by vernacular dwelling’s strategies for improving the energy efficiency of buildings. Arigue, B., & Kadri, M. (n.d.). The participatory approach as the main axis of strategic planning towards a sustainable urban development of cities: Case of Algeria.
Irfan Ullah | Land-atmosphere interaction | Best Researcher Award Published on 29/11/202529/11/2025 by Environmental Scientists Dr. Irfan Ullah | Land-atmosphere interaction | Best Researcher Award Henan Academy of Science | China Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Dr. Irfan Ullah is a committed researcher in atmospheric sciences whose work reflects a strong dedication to advancing scientific understanding of drought dynamics, climate variability, hydrometeorological extremes, and land–atmosphere interactions across Asia, Africa, and other vulnerable regions. With a solid background in meteorology and disaster management, he has built a respected academic and research portfolio marked by extensive contributions to high-impact scientific literature. His research addresses critical challenges related to flash droughts, heatwaves, hydrological risks, water scarcity, and climate-induced hazards, with publications in leading international journals such as Communications Earth & Environment, Earth’s Future, npj Climate and Atmospheric Science, npj Urban Sustainability, Geophysical Research Letters, Journal of Hydrology, Climate Dynamics, and Science of the Total Environment. He has successfully led multiple nationally funded scientific projects, demonstrating strong capability in conceptualizing research ideas, securing competitive grants, and delivering impactful outcomes for climate and environmental risk assessment. His academic journey is complemented by active engagement in scientific services, including editorial board membership and peer-review roles for numerous prestigious SCI, SCIE, and SSCI-indexed journals. His scholarly influence is reflected in his citation profile, with more than 2,289 citations, an h-index of 26, and an i10-index of 43, highlighting the global visibility and impact of his research. He has contributed substantially to collaborative, interdisciplinary research aimed at understanding climate extremes, drought propagation, and water–energy–climate linkages. With a consistent record of publishing as both principal and coauthor, he has significantly advanced knowledge on climate hazards, environmental sustainability, and regional climate resilience. Driven by a passion for scientific innovation, he continues to explore emerging challenges in atmospheric sciences and hydrometeorology, striving to contribute meaningful insights that support climate adaptation, environmental planning, and sustainable development worldwide. Profile: Orcid | Google Scholar
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Featured Publications Iyakaremye, V., Zeng, G., Yang, X., Zhang, G., Ullah, I., Gahigi, A., Vuguziga, F., … (2021). Increased high-temperature extremes and associated population exposure in Africa by the mid-21st century. Science of the Total Environment, 790, 148162. Ullah, I., Saleem, F., Iyakaremye, V., Yin, J., Ma, X., Syed, S., Hina, S., Asfaw, T. G., … (2022). Projected changes in socioeconomic exposure to heatwaves in South Asia under changing climate. Earth’s Future, 10(2), e2021EF002240. Arshad, M., Ma, X., Yin, J., Ullah, W., Liu, M., Ullah, I. (2021). Performance evaluation of ERA-5, JRA-55, MERRA-2, and CFS-2 reanalysis datasets over diverse climate regions of Pakistan. Weather and Climate Extremes, 33, 100373. Shahzaman, M., Zhu, W., Ullah, I., Mustafa, F., Bilal, M., Ishfaq, S., Nisar, S., … (2021). Comparison of multi-year reanalysis, models, and satellite remote sensing products for agricultural drought monitoring over South Asian countries. Remote Sensing, 13(16), 3294. Bhatti, A. S., Wang, G., Ullah, W., Ullah, S., Hagan, D. F. T., Nooni, I. K., … (2020). Trend in extreme precipitation indices based on long-term in situ precipitation records over Pakistan. Water, 12(3), 797.
Li ChengLong | Remote Sensing | Young Scientist Award Published on 28/11/202528/11/2025 by Environmental Scientists Mr. Li ChengLong | Remote Sensing | Young Scientist Award North China University of Water Resources and Electric Power | China Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Mr. Li ChengLong is an emerging researcher specializing in resource and environmental remote sensing, with a focus on analyzing ecological and environmental changes using spatial-temporal data. His research primarily investigates the Danjiangkou Reservoir area in China, where he has explored the dynamics of rocky desertification and the evolution of vegetation indices over four decades. Through his work, he has identified the key driving factors and underlying mechanisms governing ecological transformations, providing critical insights into regional environmental change. Mr. Li ChengLong has published two scientific papers that contribute to understanding ecological evolution, resource management, and sustainable protection strategies for important water source areas. By integrating remote sensing technologies with environmental analysis, his research offers actionable knowledge for monitoring landscape change, supporting decision-making for ecological conservation, and enhancing resource management frameworks. Mr. Li ChengLong scholarly contributions demonstrate his potential as a young scientist in environmental studies, emphasizing the application of geospatial methods to understand complex environmental processes, advance ecological sustainability, and inform policy and management practices. His work lays a foundation for further research in the sustainable monitoring and management of critical water and ecological resources. Profile: Orcid
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Featured Publications Wu, S., Li, C., Wang, H., Wang, Z., Ji, H., Zhang, Z., Zhang, Y., Hao, W., & Song, Y. (2025). Spatiotemporal dynamics of rocky desertification in the Danjiangkou Reservoir, China. Sustainability, 17, 9748. Li, C. (2025). Spatial-temporal evolution and driving factors of NDVI in Danjiangkou Reservoir area from 1982 to 2022. Resources and Environment in the Yangtze Basin.
Renata Marks-Bielska | Bioenergy | Best Scholar Award Published on 28/11/202528/11/2025 by Environmental Scientists Prof. Dr. Renata Marks-Bielska | Bioenergy | Best Scholar Award University of Warmia and Mazury in Olsztyn | Poland Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Prof. Dr. Renata Marks-Bielska is a distinguished scholar in economic sciences whose research explores the intersection of agricultural economics, sustainable development, environmental policy, energy transition, and regional innovation systems. As a senior academic leader at the University of Warmia and Mazury in Olsztyn, she has built a strong reputation for analyzing how institutions, market mechanisms, and public policies shape the dynamics of rural development, agricultural land management, renewable energy adoption, and green transformation within local and international contexts. Her work provides critical insights into agricultural land leasing, pro-environmental practices on farms, the economic viability of bioenergy resources, and the interdependencies between science, business, and policy sectors. Her research visibility continues to grow, reflected in 1852 citations, an h-index of 19, and an i10-index of 48, demonstrating the strong academic impact and relevance of her contributions. She has contributed to major national and international research initiatives addressing agricultural system reform, sustainable use of natural resources, circular bioeconomy models, and climate resilience. Her publications demonstrate a broad thematic range, including studies on innovation uptake in farming, green human resource management, energy and economic balances in crop production, agroecosystem service valuation, and the institutional and spatial determinants of new business formation. She actively collaborates with interdisciplinary teams across Europe, particularly in projects involving upcycling of agricultural residues, climate adaptation strategies, and the integration of renewable energies into rural economies. Recognized for her scientific achievements, leadership, and contributions to regional development, she has received multiple awards highlighting her influence in academia, public policy, and science–business cooperation. Her research continues to support evidence-based strategies for advancing sustainable agriculture, resilient rural communities, and environmentally responsible economic systems. Profiles: Orcid | Google Scholar
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Featured Publications Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Marks-Bielska, R., Bielski, S., Pik, K., & Kurowska, K. (2020). The importance of renewable energy sources in Poland’s energy mix. Energies, 13(18), 4624. Marks-Bielska, R. (2013). Factors shaping the agricultural land market in Poland. Land Use Policy, 30(1), 791–799. Kurowska, K., Kryszk, H., Marks-Bielska, R., Mika, M., & Leń, P. (2020). Conversion of agricultural and forest land to other purposes in the context of land protection: Evidence from Polish experience. Land Use Policy, 95, 104614. Kurowska, K., Marks-Bielska, R., Bielski, S., Kryszk, H., & Jasinskas, A. (2020). Food security in the context of liquid biofuels production. Energies, 13(23), 6247. Marks-Bielska, R. (2010). Rynek ziemi rolniczej w Polsce: uwarunkowania i tendencje rozwoju. Wydawnictwo Uniwersytetu Warmińsko-Mazurskiego.
Liang Xiao | Low-Carbon | Research Excellence Award Published on 28/11/202528/11/2025 by Environmental Scientists Assist. Prof. Dr. Liang Xiao | Low-Carbon | Research Excellence Award Zhaoqing University | China Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Assist. Prof. Dr. Liang Xiao is an Associate Professor at Zhaoqing University whose research advances the scientific understanding of soil carbon sequestration and soil fertility improvement through innovative, sustainable approaches grounded in soil science and environmental biogeochemistry. His work has contributed significantly to the development of new carbon-smart agricultural strategies, highlighted by the pioneering creation of an in-field, in situ oxy-exposure carbonization technology capable of producing biochar through a self-limited oxygen and water-quenched high-temperature pyrolysis mechanism. This breakthrough offers a practical pathway for farmers to produce low-cost biochar while enhancing soil quality and long-term carbon storage. Assist. Prof. Dr. Liang Xiao has also elucidated the sources and accumulation patterns of soil organic carbon in pond-field systems, providing new insight into carbon cycling in flooded agricultural landscapes. His research extends into plant-soil-microbe interactions, revealing the mechanistic role of microbial exopolysaccharides in mediating flood tolerance in maize seedlings, thereby bridging soil fertility management and crop resilience. His scholarly contributions span multiple high-quality journals, covering topics such as waterlogged carbon dynamics, biochar engineering, soil aggregation processes, nutrient-use efficiency, salinity mitigation, and the life-cycle environmental impacts of aquaculture systems. Through interdisciplinary collaborations and active participation in scientific societies, he promotes soil science literacy and supports evidence-based environmental stewardship. His research continues to shape emerging strategies for climate-resilient agriculture, regenerative soil management, and sustainable resource utilization. Profiles: Orcid
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Featured Publications Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Liang, X., Chen, S., Han, F., Wang, T., Li, Y., Li, W., Yuan, G., & Wu, J. (2025). Unveiling carbon dynamics in year-round waterlogged pond fields: Insights into soil organic carbon accumulation and sustainable management. Carbon Research. Liang, X., Li, W., Wu, J., Li, Y., Yuan, G., Wang, Y., Xu, Q., Feng, L., Hao, X., & Han, F. (2025). Enhanced carbon retention in Litchi biochar via in-situ limewater coating and self-limited oxygen pyrolysis regulated by water-fire interaction. Biochar. Liang, X., Xie, X., Larson, S. L., Ballard, J. H., Zhang, Q., Nie, J., Zhang, H., Yuan, G., & Han, F. (2025). Exopolysaccharides from Rhizobium tropici improve flooding tolerance of Zea mays seedlings: Insights from a controlled pot study. Plant and Soil. Liang, X., Li, Y., Li, W., Yuan, G., Wu, J., Han, F., & Chen, M. (2025). Co-applications of biochar and reduced fertilizer improved soil fertility, nitrogen use efficiency, and yield of Lycium chinense Mill: A two-year field trial. Journal of Soil Science and Plant Nutrition. Liang, X., Yuan, Q., Li, W., Wu, J., Li, Y., Chen, S., Yuan, G., Wang, T., Ling, J., & Han, F. (2025). Carbon emissions and economic performance of high-density versus traditional Ctenopharyngodon idella aquaculture: Evidence from life cycle assessment methodology and field measurements. Aquaculture International.
Eriona Canga | Nature-based Solutions | Research Excellence Award Published on 28/11/202528/11/2025 by Environmental Scientists Dr. Eriona Canga | Nature-based Solutions | Research Excellence Award Researcher | Alchemia-Nova Research and Innovation | Austria Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Dr. Eriona Canga is an environmental researcher whose work centers on innovative, science-driven approaches to water management, nutrient removal, and sustainable eco-technologies. With extensive international research experience, she has developed strong expertise in hydro-geochemistry, constructed wetlands, and nature-based solutions for circular and climate-resilient urban systems. Her research focuses especially on wastewater treatment using multifunctional constructed wetlands and the optimization of phosphorus and nitrogen removal through advanced filter materials. She has contributed to major European and international research initiatives addressing sustainable agriculture, water circularity, biorefinery concepts, biochemical processes, and resource recovery in cities. Eriona’s scientific work demonstrates a deep understanding of hydro-physical behavior, solute transport, hydraulic conductivity, and nutrient retention in granular media and drainage filters. She has authored a body of peer-reviewed work that has achieved 199 citations across 186 documents, with 11 publications contributing to an h-index of 7. Her contributions extend to laboratory experimentation, field-scale assessments, and modeling approaches such as advection–dispersion, stream tube models, and transfer-function methods. She has presented her findings at international conferences focused on wetland systems, water pollution control, hydrology, and environmental technology, helping advance sustainable water treatment strategies. Dr. Eriona Canga is also active in multidisciplinary collaborations involving green chemistry, groundwater protection, and climate-related impacts on Mediterranean and European water systems. With strong capabilities in scientific coordination, laboratory management, project development, and academic supervision, she continues to advance research integrating ecological engineering, circular resource management, and innovative environmental technologies to support sustainable and resilient water infrastructures. Profile: Scopus | Orcid | Google Scholar
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Featured Publications Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Kisser, J., Wirth, M., De Gusseme, B., Van Eekert, M., Zeeman, G., … (2020). A review of nature-based solutions for resource recovery in cities. Blue-Green Systems, 2(1), 138–172. Canga, E., Dal Santo, S., Pressl, A., Borin, M., & Langergraber, G. (2011). Comparison of nitrogen elimination rates of different constructed wetland designs. Water Science and Technology, 64(5), 1122–1129. Canga, E., Heckrath, G., & Kjaergaard, C. (2016). Agricultural drainage filters. II. Phosphorus retention and release at different flow rates. Water, Air, & Soil Pollution, 227(276). Megyesi, B., Gholipour, A., Cuomo, F., Canga, E., Tsatsou, A., Zihlmann, V., … (2024). Perceptions of stakeholders on nature-based solutions in urban planning: A thematic analysis in six European cities. Urban Forestry & Urban Greening, 96, 128344. Canga, E., Iversen, B. V., & Kjaergaard, C. (2014). A simplified transfer function for estimating saturated hydraulic conductivity of porous drainage filters. Water, Air, & Soil Pollution, 225(1), 1794.
Josephine Boadi Mensah | Waste Management | Best Research Article Award Published on 28/11/202528/11/2025 by Environmental Scientists Ms. Josephine Boadi Mensah | Waste Management | Best Research Article Award Durham University | Canada Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Ms. Josephine Boadi Mensah is an emerging environmental studies professional with a strong academic foundation and hands-on exposure to diverse community-oriented and research-supportive roles. She brings a keen understanding of environmental policies, sustainability concepts, workplace safety frameworks, and related interdisciplinary themes that shape contemporary environmental management. Throughout her academic journey, she cultivated solid analytical thinking, data interpretation abilities, and a detail-oriented approach essential for supporting evidence-based environmental decision-making. Her experience in people-focused environments strengthened her communication, organization, and problem-solving skills, allowing her to excel in dynamic settings that require adaptability, empathy, and clear information delivery. She has demonstrated the ability to manage responsibilities independently or collaboratively, applying structured time management and a solutions-driven mindset to meet research and operational goals. Ms. Josephine Boadi Mensah commitment to continuous learning is reflected in her engagement with volunteer activities, campus initiatives, and community development efforts that enhanced her global awareness and leadership potential. She is proficient in essential digital tools and capable of performing fundamental data analysis to support research accuracy and project coordination. Her background across environmental studies, customer service, community engagement, and social support services equips her with a unique interdisciplinary perspective, enabling her to understand environmental challenges not only from a scientific standpoint but also through social, cultural, and human-centered lenses. Ms. Josephine Boadi Mensah is passionate about contributing to environmental solutions, sustainability initiatives, and research excellence, aiming to support innovative approaches that address complex environmental problems and create meaningful positive impact. Profiles: Orcid | Google Scholar
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Featured Publications Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Boadi-Mensah, J. (2025). Waste Management in the 21st Century: Challenges, Opportunities, and Sustainable Solutions. Journal of Sustainable Agriculture and Environmental Innovations, 1(3), 1–11. Boadi-Mensah, J. (2025). Municipal Solid Waste Management: A Comparative Study of Practices in Emerging Economies. Evolutionary Studies in Imaginative Culture, 9(S1), 193–198. Boadi-Mensah, J. (2025). Sustainable Waste Management as a Tool for Climate Change Mitigation. Journal of Innovative Science, 1(01), 25–34. Boadi-Mensah, J. (2024). Smart Cities and Sustainable Waste Systems: Innovations in Urban Solid Waste Management. Review of Contemporary Philosophy, 23(O2). Boadi-Mensah, J. (2023). The Role of Government Policies in Strengthening Urban Waste Management Systems. LEX LOCALIS–Journal of Local Self-Government, 21(S2), 12–22.
Darundana Endro Prasetyotomo | Civil Engineering | Best Innovator Award Published on 27/11/202527/11/2025 by Environmental Scientists Mr. Darundana Endro Prasetyotomo | Civil Engineering | Best Innovator Award PT Pertamina International Refinery RU V Balikpapan | Indonesia Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Mr. Darundana Endro Prasetyotomo is an environmental engineering professional with a strong foundation in engineering principles, environmental management, and safety practices. A Bachelor of Engineering graduate, he has cultivated broad expertise through diverse roles in environmental monitoring, safety supervision, and capacity enhancement across industrial and governmental sectors. His experience includes air quality assessment, environmental compliance, construction monitoring, and technical evaluations, demonstrating his commitment to sustainable development and regulatory standards. Darundana has strengthened his professional competence through extensive training in occupational health and safety, environmental management systems, and quality management, complemented by certifications in air pollution supervision, hazardous waste management, water sampling, and life cycle assessment. His profile is further supported by academic and leadership engagements, showcasing versatility, communication skills, and creative involvement. Recognized for teamwork, adaptability, and a proactive learning mindset, he is proficient in engineering tools such as AutoCAD, ArcGIS, EPANET, and GIS platforms. Passionate about integrating engineering with environmental stewardship, he consistently applies a solution-oriented approach to environmental challenges, safety culture, and operational efficiency. His scholarly contributions have also gained recognition, with a citation count of 9 and an h-index of 2, reflecting the growing impact of his work within the environmental field. Profile: Google Scholar
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Featured Publications Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Af’idah, N. (2012). Analysis of the relationship of Total Suspended Particulate (TSP) concentrations indoors and outdoors and related factors (Case study: PT. Japfa So Good Food Sidoarjo). Journal Of Chemical Info And Modeling, 53(9), 1689–1699. Prasetyotomo, D. E., Huboyo, H. S., & Hadiwidodo, M. (2015). Analysis of indoor Total Suspended Particulate (TSP) quality in the smoking process (Case study: Fish Smoking Center Bandarharjo, Semarang City). Jurnal Teknik Lingkungan, 4(1), 1–11. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2023). Sustainable mangrove management model. Butar Butar, B., Prabowo, A. L., Prasetyotomo, D. E., et al. (2024). Sei Wain: A green heritage in the land of Kalimantan.
Guy Trudon Muya | Thermodynamic Engineering | Best Researcher Award Published on 24/11/202524/11/2025 by Environmental Scientists Mr. Guy Trudon Muya | Thermodynamic Engineering | Best Researcher Award University of Gabes | Tunisia Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Mr. Guy Trudon Muya is a PhD scholar at the National Engineering School of Gabès, University of Gabes, advancing research in mechanical engineering with a specialization in energy mechanics and applied thermodynamics. Building on a strong foundation in electromechanics and applied mechanics, his research centers on thermo-economic modeling, thermodynamic assessment, and multi-criteria optimization of advanced energy systems, particularly the integration of the Kalina cycle within multigeneration technologies. He has contributed to three research projects and published in reputable outlets, including the Fuels journal, with his work gaining visibility through indexed citation platforms. His scientific interests encompass detailed thermodynamic analysis of systems powered by low- and medium-temperature heat sources, evaluation of exergy destruction across system components, and performance enhancement strategies for hybrid configurations. His recent contributions include a comprehensive thermodynamic and exergy-based investigation on combined electricity and green hydrogen production, analyzing the effects of geothermal temperature, operating pressures, ammonia–water concentration ratios, and key heat-exchange parameters. This study enabled the identification of an optimized multigeneration system with improved exergy efficiency and enhanced hydrogen output. He is associated with the Laboratory of Applied Thermodynamics, where he collaborates on advanced modeling and optimization approaches for next-generation energy solutions. His research demonstrates a commitment to innovation in sustainable energy systems, with a focus on improving efficiency, minimizing exergy losses, and supporting the development of environmentally responsible technologies. Through his scholarly work and ongoing doctoral research, he continues to contribute valuable insights to the field of thermodynamic system integration and green energy production. Profiles: Orcid
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Featured Publications Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M., & Sadiki, A. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions, and optimization. Fuels, 6(3), Article 65. Muya, G. T., Fellah, A., Yaquan, S., Boukhchana, Y., Molima, S., Kanyama, M. K., & Amsini, S. (2025). A geothermal-driven zero-emission poly-generation energy system for power and green hydrogen production: Exergetic analysis, impact of operating conditions and optimization. Preprints.
Sidan Lu | Green Electrochemistry | Young Scientist Award Published on 22/11/202522/11/2025 by Environmental Scientists Dr. Sidan Lu | Green Electrochemistry | Young Scientist Award Yale University | United States Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Dr. Sidan Lu is a dynamic environmental engineer and emerging scholar whose research advances innovative electrochemical and bioelectrochemical technologies for sustainable resource recovery, clean water production, and green chemical synthesis. With a strong academic foundation in environmental and water sciences, his work spans membrane electrolysis, electro-fermentation, bioelectrochemical systems, and salinity gradient energy harvesting. He has contributed significantly to developing electroactive membranes, microbial fuel cells, and membrane distillation methods that enable efficient recovery of volatile fatty acids, ammonia, hydrogen, and other high-value intermediates from complex wastewater streams. His publications in leading journals highlight his expertise in integrating microbial processes with electrochemical engineering to enhance energy efficiency, improve water treatment performance, and promote circular resource utilization, supported by a research record that includes 461 citations by 443 documents, 22 documents, and an h-index of 12. Beyond wastewater-focused innovations, his recent work explores green chemistry pathways, including electrochemical conversion of lignin-derived molecules into sustainable chemicals and materials. His collaborative contributions with interdisciplinary teams demonstrate a strong commitment to addressing global challenges in clean energy, decarbonization, and environmental sustainability. Through continued research at internationally recognized institutions, he plays an influential role in advancing next-generation technologies that support climate resilience, renewable energy integration, and environmentally responsible production pathways. Profiles: Scopus | Orcid | Google Scholar | LinkedIn
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Featured Publications Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.
Tan, G., Lu, S., Xu, N., Gao, D., & Zhu, X. (2020). Pseudocapacitive behaviors of polypyrrole grafted activated carbon and MnO2 electrodes to enable fast and efficient membrane-free capacitive deionization. Environmental Science & Technology, 54(9), 5843–5852. Lu, S., Li, H., Tan, G., Wen, F., Flynn, M. T., & Zhu, X. (2019). Resource recovery microbial fuel cells for urine-containing wastewater treatment without external energy consumption. Chemical Engineering Journal, 373, 1072–1080. Sun, Y., Lu, S., Zhao, X., Ding, A., & Wang, L. (2017). Long-term oil pollution and in situ microbial response of groundwater in Northwest China. Archives of Environmental Contamination and Toxicology, 72(4), 519–529. Lu, S., Sun, Y., Lu, B., Zheng, D., & Xu, S. (2020). Change of abundance and correlation of Nitrospira inopinata-like comammox and populations in nitrogen cycle during different seasons. Chemosphere, 241, 125098. Zheng, D., Sun, Y., Li, H., Lu, S., Shan, M., & Xu, S. (2016). Multistage A-O activated sludge process for paraformaldehyde wastewater treatment and microbial community structure analysis. Journal of Chemistry, 2016(1), 2746715.