恒河子流域受气候影响的长期水资源供应及其对能源安全影响的综合评估

Xin Zhou, B. Mitra, D. Sharma, G. Islam, R. Malla, D. Herran
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引用次数: 3

摘要

恒河流域为饮用、灌溉、工业和发电提供了必需的水。全球气候变化将影响流域的水资源供应,并不可避免地加剧主要用户之间的水资源竞争,特别是来自火力发电的竞争。了解水资源供需缺口的空间分布和满足冷却水需求的水资源压力对于有效的能源规划和水资源管理至关重要。本文介绍了印度案例研究的结果,该研究基于对恒河子流域水能关系的综合评估,重点是在气候变化条件下到2050年火电厂的水资源压力评估。水文模拟结果表明,在温室气体代表性浓度路径(RCP)情景下,2050年Chambal、Damodar、Gandak和Yamuna四个研究子流域的总体可用水量将分别比2010年增加13%、33%、21%和28%。然而,全年的可用水量不会均匀分布,在一些子流域,旱季的可用水量会减少。例如,到本世纪50年代,亚穆纳旱季的水量将减少25%。根据RCP 4.5,到2050年,水需求的稳定增长将导致亚穆纳40个地区中的30个地区和甘达克33个地区中的18个地区严重缺水。因此,Damodar地区40%的现有和计划中的火力发电厂以及Gandak和Yamuna地区几乎所有的火力发电厂未来都将面临高水风险,危及印度的能源安全。因此,能源发展规划和水资源管理需要考虑到对未来火力发电构成的水风险,并考虑将计划中的设施从缺水地区(特别是甘达克)搬迁到水资源过剩的其他地区(如昌巴尔)。同样重要的是,为计划中的和新的装置采用用水量较少的发电技术和冷却系统。恒河子流域,综合评价,火力发电用水压力,水供需缺口,水能联系
本文章由计算机程序翻译,如有差异,请以英文原文为准。
An integrated assessment of climate-affected long-term water availability and its impacts on energy security in the Ganges sub-basins
The Ganges basin provides essential water for drinking, irrigation, industrial use and power generation. Global climate change will affect the water availability in the basin and inevitably intensify the competition for water among major users, particularly from thermal power generation. Knowledge on the spatial distribution of water supply-demand gaps and the water stress for meeting the cooling water requirements is crucial for effective energy planning and water resource management. This article presents the outcomes from the India case study based on an integrated assessment of the water-energy nexus in the Ganges sub-basins focusing on water stress assessment for thermal power plants up to 2050 under climate change conditions. The results from the hydrological modelling show that the overall water availability in the four studied sub-basins, namely Chambal, Damodar, Gandak and Yamuna, will increase by 13%, 33%, 21% and 28%, respectively, in 2050 compared with the levels in 2010 under the greenhouse gas Representative Concentration Pathway (RCP) scenario 4.5. However, water availability will not be evenly distributed throughout the year and in some sub-basins water will be less available in the dry seasons. For example, Yamuna will have 25% less water in the dry season in the 2050s. Steady growth of water demand will cause serious water deficit in 30 out of 40 districts in Yamuna and 18 out of 33 districts in Gandak in 2050 under RCP 4.5. Consequently, 40% of the existing and planned thermal power plants in Damodar and almost all in Gandak and Yamuna will face high water risks in the future, endangering the energy security in India. Energy development planning and water resource management therefore need to take into account the water risks posed to future thermal power generation and consider the relocation of the planned installations from water-stressed areas (particularly Gandak) to alternative locations with water surplus (such as Chambal). It is also important to adopt less water-intensive power generation technologies and cooling systems for the planned and new installations. Ganges sub-basins, Integrated assessment, Water stress for thermal power generation, Water supply-demand gaps, Water-energy nexus
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