需求增长对印度电力部门脱碳的影响以及能源储存的作用

IF 5.8 Q2 ENERGY & FUELS Energy and climate change Pub Date : 2023-02-18 DOI:10.1016/j.egycc.2023.100098
Marc Barbar, Dharik S. Mallapragada, Robert J. Stoner
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引用次数: 0

摘要

全球能源部门的脱碳努力取决于印度等新兴市场能源生产和最终用途的技术选择,在印度,空调(AC)预计将成为电力需求增长的主要推动力。在这里,我们评估了在各种技术和政策情景下,需求和供给侧驱动因素对印度电力行业长期发展的影响。我们的分析是基于开发:(a)从一个具有高时间分辨率的自下而上预测模型产生的多种需求情景,该模型捕获了由交流和电动汽车(EV)采用引起的电力消耗的结构变化;(b)一个具有电网运行高时间分辨率的多时期电力系统容量扩张模型,以模拟响应需求、技术和政策因素变化的供给侧演变。例如,这样的框架使我们能够量化提高交流系统的电器效率标准或改变电动汽车充电模式对电力系统脱碳前景的影响。在预计可再生能源和锂离子储能成本下降的情况下,我们的模型指出,到2030年,太阳能和风能发电将大幅贡献(46-67%),以满足印度的年电力需求。然而,如果没有适当的政策措施来逐步淘汰现有的煤炭发电,即使如此迅速地采用可变可再生能源,加上一种或多种技术杠杆,如低成本的能源储存和需求侧措施,如制定积极的交流效率标准和部署配电级存储,也不足以减少2050年的二氧化碳年排放量,因为在此期间预计电力需求的增长率相对较高。这表明,印度电力部门的深度脱碳将需要政策措施,而不仅仅是加快可再生能源的部署。
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Impact of demand growth on decarbonizing India's electricity sector and the role for energy storage

Global energy sector decarbonization efforts are contingent on technology choices for energy production and end-use in emerging markets such as India, where air conditioning (AC) is expected to be a major driver for electricity demand growth. Here, we assess the impact of demand and supply side-drivers on the long-term evolution of the electricity sector in India under various technology and policy scenarios. Our analysis is based on developing: (a) multiple demand scenarios produced from a bottom-up forecasting model with high temporal resolution that capture structural changes in electricity consumption resulting from (AC) and electric vehicle (EV) adoption, and (b) a multi-period power system capacity expansion model with high temporal resolution of grid operations to model supply-side evolution in response to changes in demand and technology and policy factors. Such a framework allows us to, for example, quantify the impacts of improving appliance efficiency standards for AC systems or shifts in EV charging patterns on power system decarbonization prospects. Under projected renewables and Li-ion storage cost declines, our modeling points to solar and wind generation contributing substantially (46–67%) to meet annual electricity demand in India by 2030. However, without appropriate policy measures to phase out existing coal generation, even such rapid adoption of variable renewable energy coupled with one or more technological levers such as low-cost energy storage and demand-side measures such as setting aggressive AC efficiency standards and deploying distribution level storage, are insufficient to reduce annual CO2 emissions in 2050 vs. 2020 because of the relatively higher growth rate of projected electricity demand over this period. This suggests that deep decarbonization of India's power sector will require policy measures beyond efforts related to accelerating renewables deployment.

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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
CiteScore
7.90
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0.00%
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0
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