Jeroen B Guinée
Biographic Data
| ID | 8443867 |
|---|---|
| NAME | Jeroen B Guinée |
| GIVEN NAMES | Jeroen B |
| FAMILY NAME | Guinée |
| SIGNATURE | GUINÉE J B |
| AFFILIATIONS | Leiden University |
| ORCID | 0000-0003-2558-6493 |
| VERIFIED | Yes |
| TOTAL WORKS | 11 |
| TOTAL CITATIONS | 0 |
| AUTHOR COUNT | 11 |
| EDITOR COUNT | 0 |
| FIRST PUBLICATION YEAR | 1999 |
| LATEST PUBLICATION YEAR | 2026 |
| H-INDEX | 0 |
Do emerging guidelines for automotive life cycle assessment lead to consistent results? The case of battery electric vehicles
Road transportation is responsible for one fifth of European Union's total greenhouse gases (GHGs), besides other environmental concerns. Thus, Life Cycle Assessment (LCA) is increasingly used in the automotive sector to guide environmental strategies and policy compliance, emphasizing the importance of methodological choices and their standardization. This study examines three recent and influential LCA guidelines in Europe developed through maj…
Life cycle assessment‐based Absolute Environmental Sustainability Assessment is also relative
Over the past years, an increasing number of scholarly papers have used the planetary boundaries (PBs) within life cycle assessment (LCA) to determine if the life cycle impacts of a product system fit within those PBs and thereby establish the absolute sustainability of the product system. This type of LCA is nowadays coined as LCA‐based Absolute Environmental Sustainability Assessment (AESA). “Absolute” thereby refers to methods enabling the com…
Life cycle assessment of emerging technologies at the lab scale
Nanomaterials are expected to play an important role in the development of sustainable products. The use of nanomaterials in solar cells has the potential to increase their conversion efficiency. In this study, we performed a life cycle assessment (LCA) for an emerging nanowire‐based solar technology. Two lab‐scale manufacturing routes for the production of nanowire‐based solar cells have been compared—the direct growth of GaInP nanowires on sili…
When the Background Matters
Prospective life cycle assessment (LCA) needs to deal with the large epistemological uncertainty about the future to support more robust future environmental impact assessments of technologies. This study proposes a novel approach that systematically changes the background processes in a prospective LCA based on scenarios of an integrated assessment model (IAM), the IMAGE model. Consistent worldwide scenarios from IMAGE are evaluated in the life …
Life Cycle Assessment of Food Systems
The production and consumption of food are responsible for serious environmental degradation. Given the nature of the global economy, the impacts of food are dispersed over the full extent of the planet because food commodities may travel long distances from production to consumption. In this Primer, we introduce the principles of life cycle assessment (LCA), which allows for the assessment of the global extent of the inputs, outputs, and potenti…
Charting the Future of Life Cycle Sustainability Assessment
Life Cycle Assessment
Environmental life cycle assessment (LCA) has developed fast over the last three decades. Whereas LCA developed from merely energy analysis to a comprehensive environmental burden analysis in the 1970s, full-fledged life cycle impact assessment and life cycle costing models were introduced in the 1980s and 1990 s, and social-LCA and particularly consequential LCA gained ground in the first decade of the 21st century. Many of the more recent devel…
Life Cycle Sustainability Analysis
Recent developments in Life Cycle Assessment
Environmental Impacts of Consumption in the European Union
For developing product policy, insight into the environmental effects of products is required. But available life‐cycle assessment studies (LCAs) are hardly comparable between different products and do not cover total consumption. Input‐output analysis with environmental extensions (EEIOA) of full consumption is not available for the European Union. Available country studies have a low sector resolution and a limited number of environmental exten…
Evaluation of risks of metal flows and accumulation in economy and environment
No prominent works on this page.
Evaluation of risks of metal flows and accumulation in economy and environment
Environmental Impacts of Consumption in the European Union
For developing product policy, insight into the environmental effects of products is required. But available life‐cycle assessment studies (LCAs) are hardly comparable between different products and do not cover total consumption. Input‐output analysis with environmental extensions (EEIOA) of full consumption is not available for the European Union. Available country studies have a low sector resolution and a limited number of environmental exten…
Recent developments in Life Cycle Assessment
Life Cycle Assessment
Environmental life cycle assessment (LCA) has developed fast over the last three decades. Whereas LCA developed from merely energy analysis to a comprehensive environmental burden analysis in the 1970s, full-fledged life cycle impact assessment and life cycle costing models were introduced in the 1980s and 1990 s, and social-LCA and particularly consequential LCA gained ground in the first decade of the 21st century. Many of the more recent devel…
Life Cycle Sustainability Analysis
Charting the Future of Life Cycle Sustainability Assessment
Life Cycle Assessment of Food Systems
The production and consumption of food are responsible for serious environmental degradation. Given the nature of the global economy, the impacts of food are dispersed over the full extent of the planet because food commodities may travel long distances from production to consumption. In this Primer, we introduce the principles of life cycle assessment (LCA), which allows for the assessment of the global extent of the inputs, outputs, and potenti…
Life cycle assessment of emerging technologies at the lab scale
Nanomaterials are expected to play an important role in the development of sustainable products. The use of nanomaterials in solar cells has the potential to increase their conversion efficiency. In this study, we performed a life cycle assessment (LCA) for an emerging nanowire‐based solar technology. Two lab‐scale manufacturing routes for the production of nanowire‐based solar cells have been compared—the direct growth of GaInP nanowires on sili…
When the Background Matters
Prospective life cycle assessment (LCA) needs to deal with the large epistemological uncertainty about the future to support more robust future environmental impact assessments of technologies. This study proposes a novel approach that systematically changes the background processes in a prospective LCA based on scenarios of an integrated assessment model (IAM), the IMAGE model. Consistent worldwide scenarios from IMAGE are evaluated in the life …
Life cycle assessment‐based Absolute Environmental Sustainability Assessment is also relative
Over the past years, an increasing number of scholarly papers have used the planetary boundaries (PBs) within life cycle assessment (LCA) to determine if the life cycle impacts of a product system fit within those PBs and thereby establish the absolute sustainability of the product system. This type of LCA is nowadays coined as LCA‐based Absolute Environmental Sustainability Assessment (AESA). “Absolute” thereby refers to methods enabling the com…
Do emerging guidelines for automotive life cycle assessment lead to consistent results? The case of battery electric vehicles
Road transportation is responsible for one fifth of European Union's total greenhouse gases (GHGs), besides other environmental concerns. Thus, Life Cycle Assessment (LCA) is increasingly used in the automotive sector to guide environmental strategies and policy compliance, emphasizing the importance of methodological choices and their standardization. This study examines three recent and influential LCA guidelines in Europe developed through maj…
Environmental Impact and Sustainability (10 works) · Life-cycle assessment (9 works) · Economics (7 works) · Computer Science (6 works) · Environmental Science (6 works) · Business (5 works) · Engineering (5 works) · Sustainability (5 works) · Ecology (4 works) · Environmental economics (4 works)