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.
Hee Kyung Park | Environmental | Best Researcher Award Published on 07/11/202507/11/2025 by Environmental Scientists Ms. Hee Kyung Park | Environmental | Best Researcher Award Post-master’s Researcher | Korea Institute of Civil Engineering and Building Technology | South Korea Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Ms. Hee Kyung Park is a Master’s Degree Researcher at the Department of Environmental Research, Korea Institute of Civil Engineering and Building Technology, whose work focuses on the quantitative risk assessment and safety management of next-generation clean energy systems. Her research emphasizes decarbonized fuels such as hydrogen and ammonia, exploring their combustion behavior, explosion risks, and fire dynamics through both experimental and computational methods. She has conducted extensive studies involving cone calorimetry, toxicity testing, and fire dynamics simulation to enhance safety protocols in energy infrastructure. Her recent publications in leading KCI and SCI(E) journals address crucial topics, including consequence analysis of hydrogen leakage accidents, ammonia fuel risk evaluation in combined cycle power plants, and semi-quantitative safety management frameworks using the Bow-tie method. Additionally, she has contributed to major national research projects developing hydrogen turbine combustor testing methods and retrofitting technologies for gas turbines co-firing hydrogen. Through her interdisciplinary approach integrating thermal engineering, safety systems, and computational risk analysis, Ms. Hee Kyung Park plays a key role in advancing safer, sustainable, and high-efficiency energy technologies that align with global carbon neutrality goals. Her expertise and scholarly output, reflected in 15 citations by 14 documents across 8 publications with an h-index of 3, continue to contribute significantly to the evolution of hydrogen and ammonia-based energy systems within industrial safety and environmental research domains. Profiles: Scopus | Orcid
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Featured Publications Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.
Park, H. K. (2023, November). Consequence analysis on the leakage accident of hydrogen fuel in a combined cycle power plant: Based on the effect of regional environmental features. Journal of Hydrogen and New Energy. Park, H. K. (2024, January). Experimental investigation on the measurement performance of high-speed ultrasonic wave thermometry in ambient- and high-temperature environments. Applied Thermal Engineering. Park, H. K. (2024, April). Semi-quantitative risk assessment using Bow-tie method for the establishment of safety management system of hydrogen fuel storage facility in a combined cycle power plant. Journal of the Korean Society of Safety. Park, H. K. (2024, April). Analysis of damage impact range according to the NG/NH3 mixing ratio when applying ammonia as fuel for a combined cycle power plant using an ALOHA program. Journal of the Korean Institute of Gas. Park, H. K. (2024, March). Fire dynamics and evacuation simulation study on the library adapting BIPV based on the experimental data of a cone calorimeter. The Korean Institute of Fire Science & Engineering.