Using life cycle assessment to design emerging electricity generation technologies

• We present guidance to design emerging energy systems using life cycle assessment. • We suggest how to fill data gaps for life cycle assessment in early design stages. • Approaches to handle uncertainties and to characterize variability are discussed. • We show how scenario analysis results can guide implementation of new systems. Novel energy technologies, especially decentralized electricity generation systems, are increasingly being designed and implemented. However, potential environmental impacts are frequently recognized after installing new energy systems at full scale, at which point modification comes at a high cost. Life cycle assessment (LCA) can be used throughout the design-to-commercialization process to prevent this outcome, despite the challenges of emerging energy technology LCAs, like comparability, lack of data, scale-up difficulties, and uncertainties that are not typically faced while evaluating existing and established systems. The complexity and urgency of evaluating climate change impacts of novel energy technologies during the research and development stage reveal the need for guidance, presented in this study, with an emphasis on data collection, data processing, and uncertainty analysis. We outline best practices in choosing among several methods that have been employed in LCA studies to fill gaps in input data, including machine learning. Additionally, we discuss how design can be guided by LCA through assessment setting and delineation of scenarios or case studies, in order to prevent unnecessary effort and maximize the amount of useful, interpretable results. We also discuss the utility of complementary analyses, including global sensitivity analysis, neural network, Monte Carlo analysis that differentiates between uncertainty and variability parameters, and optimization. This guidance has the potential to make emerging electricity generation system implementation ultimately effective in reducing greenhouse gas emissions, through the methodological use of LCA in the design process.

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Publication Details

Journal
Energy Conversion and Management X
Published
2025-07-01
DOI
https://doi.org/10.1016/j.ecmx.2025.101122
Primary Topic
Integrated Energy Systems Optimization
Type
article
Field-Weighted Citation Impact
0.00

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article

Using life cycle assessment to design emerging electricity generation technologies

Marie‐Odile P. Fortier, Colleen C. Naughton, Amir Sharafi, Samuel A. Markolf
Energy Conversion and Management X
Integrated Energy Systems Optimization
article

Using life cycle assessment to design emerging electricity generation technologies

Marie‐Odile P. Fortier, Colleen C. Naughton, Amir Sharafi, Samuel A. Markolf
article en

Abstract

• We present guidance to design emerging energy systems using life cycle assessment. • We suggest how to fill data gaps for life cycle assessment in early design stages. • Approaches to handle uncertainties and to characterize variability are discussed. • We show how scenario analysis results can guide implementation of new systems. Novel energy technologies, especially decentralized electricity generation systems, are increasingly being designed and implemented. However, potential environmental impacts are frequently recognized after installing new energy systems at full scale, at which point modification comes at a high cost. Life cycle assessment (LCA) can be used throughout the design-to-commercialization process to prevent this outcome, despite the challenges of emerging energy technology LCAs, like comparability, lack of data, scale-up difficulties, and uncertainties that are not typically faced while evaluating existing and established systems. The complexity and urgency of evaluating climate change impacts of novel energy technologies during the research and development stage reveal the need for guidance, presented in this study, with an emphasis on data collection, data processing, and uncertainty analysis. We outline best practices in choosing among several methods that have been employed in LCA studies to fill gaps in input data, including machine learning. Additionally, we discuss how design can be guided by LCA through assessment setting and delineation of scenarios or case studies, in order to prevent unnecessary effort and maximize the amount of useful, interpretable results. We also discuss the utility of complementary analyses, including global sensitivity analysis, neural network, Monte Carlo analysis that differentiates between uncertainty and variability parameters, and optimization. This guidance has the potential to make emerging electricity generation system implementation ultimately effective in reducing greenhouse gas emissions, through the methodological use of LCA in the design process.

Energy Conversion and Management XVol. 27
University of Nevada, Las Vegas (US), University of California, Merced (US)
National Science Foundation, University of California, University of California Merced, Division of Chemical, Bioengineering, Environmental, and Transport Systems, Office of Integrative Activities
Responsible consumption and production
Openalex Percentile: Top 86%
Integrated Energy Systems Optimization
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