不断发展的电力供应和需求以实现净零排放:来自EMF-37研究的见解

IF 5.8 Q2 ENERGY & FUELS
Ruying Gao , Trieu Mai , Seyed Shahabeddin Mousavi , Charles Rossmann , Matthew Binsted , John Bistline , Geoff Blanford , Morgan Browning , Matthias Fripp , Patrick Lamers , Matteo Muratori , Sharon Showalter , John Weyant
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引用次数: 0

摘要

本文基于第37届斯坦福能源建模论坛(EMF-37)的17个模型的结果,探讨了电力在到2050年实现美国全经济净零二氧化碳排放中的作用。在该研究的净零情景中,这些模型使用多种途径到2050年实现净零排放,与能源相关的剩余排放总量为2020年水平的17.2%至66.6%。电力一直是实现净零排放的核心,模型预测最终用途的快速电气化和电力的二氧化碳强度迅速下降。然而,不同车型的电力部门的电气化程度和脱碳技术组合差异很大。在净零情景中,电力预计将从2020年占最终能源的20%发展到2050年的17% - 63%,在所有部门(建筑、工业和交通运输)的电气化驱动的模式中,直接空气捕获的比例较小。到2050年,总用电量将增加24 - 176%(相对于2020年),同时可再生电力生产将大幅扩大。到2050年,太阳能和风能发电量将增长175 - 834%,占总发电量的45 - 90%,其中风能的份额略高于太阳能。电力存储技术被大规模部署,以支持风能和太阳能发电。发电结构因模式而异:一些项目几乎完全依赖可再生能源,而另一些项目则认为天然气将发挥重要作用,通常具有碳捕获和储存功能。本文综合了丰富多样的建模方法和结果,突出了对电力需求和供应的关键驱动因素可能如何演变的不同观点。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Evolving electricity supply and demand to achieve net-zero emissions: Insights from the EMF-37 study
This paper explores the role of electricity in achieving economy-wide net-zero CO2 emissions by 2050 in the United States based on results from 17 models as part of the 37th Stanford Energy Modeling Forum (EMF-37). In the study’s Net-Zero scenario, the models use diverse pathways to achieve net-zero emissions by 2050, with gross energy-related residual emissions ranging from 17.2 to 66.6 % of 2020 levels. Electricity consistently emerges as central to achieving net-zero, with models projecting rapid electrification of end-uses and rapidly declining CO2 intensity of electricity. However, the extent of electrification and the technology mix to decarbonize the power sector vary considerably across models. In the Net-Zero scenario, electricity is projected to evolve from ∼20 % of final energy in 2020 to 17–63 % in 2050 across the models driven by electrification in all sectors—buildings, industry, and transportation—and, to a lesser extent by direct air capture. By 2050, total electricity consumption increases by 24–176 % (relative to 2020), accompanied by significant expansion in renewable electricity production. Together, solar and wind generation grows by 175–834 %, supplying 45–90 % of total electricity in 2050, with wind achieving slightly higher shares than solar. Electricity storage technologies are deployed at scale to support wind and solar generation. The electricity generation mix varies across models: some project almost complete reliance on renewables, while others see a substantial role for natural gas, often with carbon capture and storage. This paper synthesizes the rich diversity of modeling approaches and results, highlighting differing views on how key drivers of electricity demand and supply might evolve.
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来源期刊
Energy and climate change
Energy and climate change Global and Planetary Change, Renewable Energy, Sustainability and the Environment, Management, Monitoring, Policy and Law
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