Petra Zapp
Biographic Data
| ID | 7991976 |
|---|---|
| NAME | Petra Zapp |
| GIVEN NAMES | Petra |
| FAMILY NAME | Zapp |
| SIGNATURE | ZAPP P |
| AFFILIATIONS | Forschungszentrum Jülich |
| ORCID | 0000-0002-8964-2450 |
| VERIFIED | Yes |
| TOTAL WORKS | 8 |
| TOTAL CITATIONS | 0 |
| AUTHOR COUNT | 8 |
| EDITOR COUNT | 0 |
| FIRST PUBLICATION YEAR | 2012 |
| LATEST PUBLICATION YEAR | 2025 |
| H-INDEX | 0 |
Green hydrogen production by PEM water electrolysis up to the year 2050
Water electrolysis technologies for producing green hydrogen are promising options for avoiding the use of fossil fuels and thus limiting climate change. Hydrogen can be used in a variety of sectors, enabling sector coupling, and strengthening the security of the energy supply through its storability. Environmental impacts provoked by green hydrogen production are comparatively low and improving manufacturing processes and technological advances …
Life cycle environmental impacts and costs of water electrolysis technologies for green hydrogen production in the future
Criteria for effective site selection of direct air capture and storage projects
Criteria for effective site selection of direct air capture and storage projects, Harzendorf, Freia, Markus, Till, Ross, Andrew, Valencia Cotera, Rodrigo, Baust, Constanze, Vögele, Stefan, Taraborrelli, Domenico, Zapp, Petra, Karydis, Vlassis A, Bowyer, Paul, Stolten, Detlef
Prospective assessment of energy technologies
Comparative patent analysis for the identification of global research trends for the case of battery storage, hydrogen and bioenergy
Patent documents provide knowledge about which countries are investing in certain technologies and make it possible to identify potential innovation trends. The aim of this article is to analyze trends in patenting that might result in innovations for three energy technologies: thermochemical conversion of biomass (Bioenergy), lithium-ion battery storage, and hydrogen production by alkaline water electrolysis. Based on different patent indicators…
Working conditions in hydrogen production
Social impacts of novel technology can, parallel to environmental and economic consequences, influence its sustainability. By analyzing the case of hydrogen production by advanced alkaline water electrolysis (AEL) from a life cycle perspective, this paper illustrates the social implications of the manufacturing of the electrolyzer and hydrogen production when installed in Germany, Austria, and Spain. This paper complements previous environmental …
Lessons Learned from a Life Cycle Sustainability Assessment of Rare Earth Permanent Magnets
In order to address methodological challenges during life cycle sustainability assessment (LCSA), this article combines the results of a life cycle assessment (LCA), a life cycle costing, and a social LCA using the example of a complex product: a rare earth permanent magnet for use in wind turbines. The article presents different approaches for combining the results of separate assessments with its attendant methodological challenges. Different n…
Meta‐Analysis of Life Cycle Assessment Studies on Electricity Generation with Carbon Capture and Storage
In the last decade, numerous life cycle assessments (LCAs) on environmental impacts of electricity generation with carbon capture and storage (CCS) have been conducted. This meta‐analysis comprises 15 LCAs of the three CCS technologies (postcombustion, oxyfuel, precombustion) with a focus on greenhouse gas reduction for different regions (Europe, United States, Japan, global), different fuels (hard coal, lignite, natural gas), and different time …
No prominent works on this page.
Meta‐Analysis of Life Cycle Assessment Studies on Electricity Generation with Carbon Capture and Storage
In the last decade, numerous life cycle assessments (LCAs) on environmental impacts of electricity generation with carbon capture and storage (CCS) have been conducted. This meta‐analysis comprises 15 LCAs of the three CCS technologies (postcombustion, oxyfuel, precombustion) with a focus on greenhouse gas reduction for different regions (Europe, United States, Japan, global), different fuels (hard coal, lignite, natural gas), and different time …
Lessons Learned from a Life Cycle Sustainability Assessment of Rare Earth Permanent Magnets
In order to address methodological challenges during life cycle sustainability assessment (LCSA), this article combines the results of a life cycle assessment (LCA), a life cycle costing, and a social LCA using the example of a complex product: a rare earth permanent magnet for use in wind turbines. The article presents different approaches for combining the results of separate assessments with its attendant methodological challenges. Different n…
Working conditions in hydrogen production
Social impacts of novel technology can, parallel to environmental and economic consequences, influence its sustainability. By analyzing the case of hydrogen production by advanced alkaline water electrolysis (AEL) from a life cycle perspective, this paper illustrates the social implications of the manufacturing of the electrolyzer and hydrogen production when installed in Germany, Austria, and Spain. This paper complements previous environmental …
Comparative patent analysis for the identification of global research trends for the case of battery storage, hydrogen and bioenergy
Patent documents provide knowledge about which countries are investing in certain technologies and make it possible to identify potential innovation trends. The aim of this article is to analyze trends in patenting that might result in innovations for three energy technologies: thermochemical conversion of biomass (Bioenergy), lithium-ion battery storage, and hydrogen production by alkaline water electrolysis. Based on different patent indicators…
Prospective assessment of energy technologies
Life cycle environmental impacts and costs of water electrolysis technologies for green hydrogen production in the future
Criteria for effective site selection of direct air capture and storage projects
Criteria for effective site selection of direct air capture and storage projects, Harzendorf, Freia, Markus, Till, Ross, Andrew, Valencia Cotera, Rodrigo, Baust, Constanze, Vögele, Stefan, Taraborrelli, Domenico, Zapp, Petra, Karydis, Vlassis A, Bowyer, Paul, Stolten, Detlef
Green hydrogen production by PEM water electrolysis up to the year 2050
Water electrolysis technologies for producing green hydrogen are promising options for avoiding the use of fossil fuels and thus limiting climate change. Hydrogen can be used in a variety of sectors, enabling sector coupling, and strengthening the security of the energy supply through its storability. Environmental impacts provoked by green hydrogen production are comparatively low and improving manufacturing processes and technological advances …
Economics (7 works) · Environmental Science (6 works) · Computer Science (5 works) · Environmental economics (5 works) · Life-cycle assessment (5 works) · Business (4 works) · Energy and Environment Impacts (4 works) · Engineering (4 works) · Environmental Impact and Sustainability (4 works) · Hybrid Renewable Energy Systems (4 works)