Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100
Achieving a “carbon neutral” world by 2100 or earlier in a context of economic growth implies a drastic and profound transformation of the way energy is supplied and consumed in our societies. In this paper, we use life-cycle inventories of electricity-generating technologies and an integrated asses...
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doaj-96cacdb7508f4cb2bee33a22864777ef2020-11-25T01:01:11ZengMDPI AGResources2079-92762019-02-01813310.3390/resources8010033resources8010033Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100Antoine Boubault0Nadia Maïzi1Mines ParisTech, Center for Applied Mathematics, PSL Research University, Rue Claude Daunesse, CS 10207, 06904 Sophia Antipolis Cedex, FranceMines ParisTech, Center for Applied Mathematics, PSL Research University, Rue Claude Daunesse, CS 10207, 06904 Sophia Antipolis Cedex, FranceAchieving a “carbon neutral” world by 2100 or earlier in a context of economic growth implies a drastic and profound transformation of the way energy is supplied and consumed in our societies. In this paper, we use life-cycle inventories of electricity-generating technologies and an integrated assessment model (TIMES Integrated Assessment Model) to project the global raw material requirements in two scenarios: a second shared socioeconomic pathway baseline, and a 2 °C scenario by 2100. Material usage reported in the life-cycle inventories is distributed into three phases, namely construction, operation, and decommissioning. Material supply dynamics and the impact of the 2 °C warming limit are quantified for three raw fossil fuels and forty-eight metallic and nonmetallic mineral resources. Depending on the time horizon, graphite, sand, sulfur, borates, aluminum, chromium, nickel, silver, gold, rare earth elements or their substitutes could face a sharp increase in usage as a result of a massive installation of low-carbon technologies. Ignoring nonfuel resource availability and value in deep decarbonation, circular economy, or decoupling scenarios can potentially generate misleading, contradictory, or unachievable climate policies.https://www.mdpi.com/2079-9276/8/1/33industrial ecologyintegrated assessment modelslife-cycle inventoriesmineral resourcesdecouplingprospective scenario analysisTIAM-FRsocioeconomic metabolism |
collection |
DOAJ |
language |
English |
format |
Article |
sources |
DOAJ |
author |
Antoine Boubault Nadia Maïzi |
spellingShingle |
Antoine Boubault Nadia Maïzi Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100 Resources industrial ecology integrated assessment models life-cycle inventories mineral resources decoupling prospective scenario analysis TIAM-FR socioeconomic metabolism |
author_facet |
Antoine Boubault Nadia Maïzi |
author_sort |
Antoine Boubault |
title |
Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100 |
title_short |
Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100 |
title_full |
Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100 |
title_fullStr |
Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100 |
title_full_unstemmed |
Devising Mineral Resource Supply Pathways to a Low-Carbon Electricity Generation by 2100 |
title_sort |
devising mineral resource supply pathways to a low-carbon electricity generation by 2100 |
publisher |
MDPI AG |
series |
Resources |
issn |
2079-9276 |
publishDate |
2019-02-01 |
description |
Achieving a “carbon neutral” world by 2100 or earlier in a context of economic growth implies a drastic and profound transformation of the way energy is supplied and consumed in our societies. In this paper, we use life-cycle inventories of electricity-generating technologies and an integrated assessment model (TIMES Integrated Assessment Model) to project the global raw material requirements in two scenarios: a second shared socioeconomic pathway baseline, and a 2 °C scenario by 2100. Material usage reported in the life-cycle inventories is distributed into three phases, namely construction, operation, and decommissioning. Material supply dynamics and the impact of the 2 °C warming limit are quantified for three raw fossil fuels and forty-eight metallic and nonmetallic mineral resources. Depending on the time horizon, graphite, sand, sulfur, borates, aluminum, chromium, nickel, silver, gold, rare earth elements or their substitutes could face a sharp increase in usage as a result of a massive installation of low-carbon technologies. Ignoring nonfuel resource availability and value in deep decarbonation, circular economy, or decoupling scenarios can potentially generate misleading, contradictory, or unachievable climate policies. |
topic |
industrial ecology integrated assessment models life-cycle inventories mineral resources decoupling prospective scenario analysis TIAM-FR socioeconomic metabolism |
url |
https://www.mdpi.com/2079-9276/8/1/33 |
work_keys_str_mv |
AT antoineboubault devisingmineralresourcesupplypathwaystoalowcarbonelectricitygenerationby2100 AT nadiamaizi devisingmineralresourcesupplypathwaystoalowcarbonelectricitygenerationby2100 |
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