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Chao’en Li | Hydrogen Energy | Research Excellance Award Published on 09/04/2026 by Award and Honors Prof. Chao’en Li | Hydrogen Energy | Research Excellance Award Prof | The University of Wenzhou University | China Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Professor. Chao’en Li is an internationally recognized expert in hydrogen energy, carbon capture, and green fuel technologies. His research emphasizes techno-economic modelling, catalyst development, and energy-efficient processes for CO₂ capture and conversion. He has pioneered innovative approaches integrating low-temperature plasma technology and advanced computational methods to enhance hydrogen production and storage systems. His contributions span renewable energy systems, ammonia-based fuels, and liquid organic hydrogen carriers, addressing critical challenges in sustainable energy transitions. With an outstanding academic profile of 73 publications, 2,752 citations, and an h-index of 28, his work demonstrates strong global impact. His interdisciplinary research connects chemical engineering, materials science, and environmental sustainability, enabling scalable and cost-effective solutions for decarbonization and future clean energy infrastructures. Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications A Numerical Parametric Analysis for NOx Reduction and Combustion Performance of Ammonia Fuels Blended with Direct and Cracked Hydrogen – Journal of the Energy Institute, 2026 Trio-Amine Blends Combined with Fly Ash-Catalyzed Desorption: A Synergistic Approach for Energy-Efficient CO₂ Capture – Fuel, 2026 Liquid Organic Hydrogen Carriers for Hydrogen Storage: A Review of Chemistry, Engineering Design and Economic Feasibility – Review Article Synergistic Brønsted–Lewis Acid Catalysts Based on SBA-15 for Energy-Saving CO₂ Capture – Chemical Engineering Journal, 2025 Layer-by-Layer Assembled Graphene Oxide-Enhanced Poly(vinyl Alcohol)/Polyurethane Coatings as Hydrogen Barriers – Materials Chemistry and Physics, 2025
Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index
Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index
Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index
Citation Metrics ( Scopus ) 3000 2500 2000 1500 1000 500 0 Citations 2752 documents 73 h-index 28 Citations Documents h-index
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Phuet Prasertcharoensuk | Chemical Engineering | Research Excellance Award Published on 09/04/202609/04/2026 by Award and Honors Assist. Prof. Dr. Phuet Prasertcharoensuk | Chemical Engineering | Research Excellance Award Lecturer | The University of Chulalongkorn University | Thailand Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Assist. Prof. Dr. Phuet Prasertcharoensuk is an accomplished chemical engineering researcher specializing in sustainable energy technologies, biomass conversion, and hydrogen production. His research emphasizes thermochemical processing, heterogeneous catalysis, and carbon dioxide capture and utilization to support cleaner and more efficient energy systems. With 18 scholarly publications, 299 citations, and an h-index of 10, he has contributed to advancements in biomass gasification, hybrid energy systems, and renewable fuel development. His work also incorporates computational modeling, process integration, and innovative approaches such as cold plasma technologies. Through interdisciplinary research, he aims to improve energy efficiency, reduce environmental impact, and support the transition toward low-carbon and circular energy systems. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications Gasification of Waste Biomass for Hydrogen Production: Effects of Pyrolysis Parameters – Renewable Energy, 2019 Optimisation of a Throat Downdraft Gasifier for Hydrogen Production – Biomass and Bioenergy, 2018 Chemical Recycling of Mixed Plastic Waste via Catalytic Pyrolysis – Journal of Environmental Chemical Engineering, 2022 Pyrolysis and Gasification Integrated Process of Empty Fruit Bunch for Multi-Biofuels Production – Energy Conversion and Management, 2022 Intensification of Two-Stage Biomass Gasification for Hydrogen Production – International Journal of Hydrogen Energy, 2024
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 299 documents 18 h-index 10 Citations Documents h-index
View Scopus Profile View ORCID Profile View Google Scholar Profile View Research Gate Profile Featured Publications
Farshad Shamlu | Engineering | Innovative Research Award Published on 09/04/202609/04/2026 by Award and Honors Mr. Farshad Shamlu | Engineering | Innovative Research Award Doctoral Student | The University of Genoa | Italy Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Mr. Farshad Shamlu is an emerging researcher in the field of modeling and simulation, focusing on complex systems across logistics, supply chains, and engineering applications. His research combines computational modeling, machine learning, and data analytics to address real-world industrial and technological challenges. He has been involved in the development of simulation-based solutions, including high-level architecture (HLA) frameworks and innovative system designs for advanced operational environments. His work also explores sustainability and optimization in engineering systems, contributing to efficient and intelligent decision-making processes. With a record of 2 publications, 5 citations, and an h-index of 1, his research demonstrates a promising trajectory in simulation science, reflecting both technical depth and interdisciplinary integration in modern engineering practices. Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index View Scopus Profile View Research Gate Profile Featured Publication Scenario Simulation to Investigate New Solutions for Port Terminals and Plants Based on Intelligent Data Fusion and Supply Chain Modeling – Conference Paper
Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index
Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index
Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index
Citation Metrics ( Scopus ) 6 5 4 3 2 1 0 Citations 5 documents 2 h-index 1 Citations Documents h-index
Rossella Marmo | Architectural engineering | Research Excellence Award Published on 09/04/2026 by Award and Honors Dr. Rossella Marmo | Architectural engineering | Research Excellence Award Researcher | The University of Naples Federico II | Italy Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Dr. Rossella Marmo is a researcher in architectural engineering whose work advances resilient and sustainable built environments through digital innovation and risk-based methodologies. Her research integrates Building Information Modelling (BIM) with performance monitoring, enabling improved facility management and lifecycle decision-making. She has developed frameworks for assessing multi-hazard vulnerability of buildings, particularly focusing on hospital resilience, urban risk, and infrastructure safety. Her contributions include stress-testing models, façade vulnerability assessment, and data-driven approaches to disaster risk reduction. Her research supports safer cities by linking building performance with urban-scale impacts. With 21 publications, 210 citations, and an h-index of 6, her scholarly output reflects a strong commitment to advancing resilient infrastructure and sustainable architectural systems through interdisciplinary approaches. Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index View Scopus Profile View Google Scholar Profile View Research Gate Profile Featured Publications Building Performance and Maintenance Information Model Based on IFC Schema – Automation in Construction, 2020 A Methodology for a Performance Information Model to Support Facility Management – Sustainability, 2019 Lessons Learnt for Enhancing Hospital Resilience to Pandemics: A Qualitative Analysis from Italy – International Journal of Disaster Risk Reduction, 2022 A Methodological Approach for Assessing the Safety of Historic Buildings’ Façades – Sustainability, 2021 Assessing the Transformability of Public Housing Through BIM – Sustainability, 2021
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index
Citation Metrics ( Scopus ) 300 250 200 150 100 50 0 Citations 210 documents 21 h-index 6 Citations Documents h-index