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Life cycle sustainability analysis applied to an innovative configuration of concentrated solar power

DOI:10.1007/s11367-018-1568-z 期刊:The International Journal of Life Cycle Assessment 出版年份:2018 更新时间:2025-09-23 15:22:29
摘要: Purpose Life cycle sustainability analysis (LCSA) is being developed as a holistic tool to evaluate environmental, economic and social impacts of products or services throughout their life cycle. This study responds to the need expressed by the scientific community to develop and test LCSA methodology, by assessing the sustainability of a concentrated solar power (CSP) plant based on HYSOL technology (an innovative configuration delivering improved efficiency and power dispatchability). Methods The methodology proposed consists of three stages: goal and scope definition, modelling and application of tools, and interpretation of results. The goal of the case study was to investigate to what extent may the HYSOL technology improve the sustainability of power generation in the Spanish electricity sector. To this purpose, several sustainability sub-questions were framed and different analysis tools were applied as follows: attributional and consequential life cycle assessment, life cycle cost (LCC) analysis and multiregional input-output analysis (MRIO), and social life cycle assessment (S-LCA) in combination with social risk assessment (with the Social Hotspots Database). Visual diagrams representing the sustainability of the analysed scenarios were also produced to facilitate the interpretation of results and decision making. Results and discussion The results obtained in the three sustainability dimensions were integrated using a Bquestions and answers^ layout, each answer describing a specific element of sustainability. The HYSOL technology was investigated considering two different operation modes: HYSOL BIO with biomethane as hybridization fuel and HYSOL NG with natural gas. The results indicated that the deployment of HYSOL technology would produce a reduction in the climate change impact of the electricity sector for both operation modes. The LCC analysis indicated economic benefits per MWh for a HYSOL NG power plant, but losses for a HYSOL BIO power plant. The MRIO analysis indicated an increase in goods and services generation, and value added for the HYSOL technology affecting primarily Spain and to a lower extent other foreign economies. The social analysis indicated that both alternatives would provide a slight increase of social welfare Spain. Conclusions The methodological approach described in this investigation provided flexibility in the selection of objectives and analysis tools, which helped to quantify the sustainability effect of the system at a micro and meso level in the three sustainability dimensions. The results indicated that the innovation of HYSOL power plants is well aimed to improve the sustainability of CSP technology and the Spanish electricity sector.
作者: Blanca Corona,Guillermo San Miguel
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To investigate to what extent may the HYSOL technology improve the sustainability of power generation in the Spanish electricity sector, and to develop and test LCSA methodology.

The LCSA methodology provided a flexible framework for assessing sustainability across environmental, economic, and social dimensions. HYSOL technology, especially with biomethane, showed improvements in environmental and social sustainability but had economic drawbacks. The innovation is aimed at enhancing the sustainability of CSP technology and the Spanish electricity sector, though no alternative performed best in all dimensions, requiring further decision-making analysis.

The influence of time was only contemplated in the economic dimension via discount rates, not in environmental or social aspects. The study did not include a dynamic approach for future changes in technologies, markets, or social trends. Aggregation of results using multi-criteria decision-making methods like AHP was not performed, though recommended.

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