地下地能试点和示范点在实现净零排放中的作用

M. Stephenson, Dolleen Tisawii'ashii Manning, M. J. Spence, L. Stalker, Z. Shipton, A. Monaghan
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引用次数: 2

摘要

最近的研究表明,气候变化的影响已经显而易见,这使得实现净零排放的要求比以往任何时候都更加紧迫。2021年4月,包括英国、美国和中国在内的各国政府在格拉斯哥举行的缔约方会议(COP26)之前宣布了新的排放目标。实现净零排放的部分解决方案将是地下地能技术,其中包括:矿井水地热、含水层热能储存(ATES)、增强型地热系统和其他储热方案、压缩空气储能(CAES)和二氧化碳捕集与封存(CCS),包括生物能CCS (BECCS)。地质学家已经在实验室规模和模型上研究了地下净零技术,但也需要在更大的实验室规模和在实验室和模型中不可复制的代表性条件下进行测试。测试、试点和示范设施有助于岩石表征过程的理解和扩大规模,从而在实验室测试、计算机建模和全面操作之间架起一座桥梁。技术发展取得进展的试验场的例子包括Otway国际测试中心(澳大利亚,CCS)和Äspö硬岩实验室(瑞典,地质放射性废物处理)。这些地点扩大了关键研究问题的规模,允许在受控环境中大规模审查与监管、许可和许可相关的科学问题。在这些地点的成功运营可以让研究人员亲眼看到,让公众、监管机构、供应链公司和投资者知道,这些技术可以安全、经济地工作。2021年2月,地质学会召开了一场题为“地下研究实验室在实现净零排放中的作用”的会议,讨论了试验场的价值及其能力差距。在两个方面发现了差距:1)测试设施,以帮助设计低成本、高分辨率、不显眼的地震和其他监测,用于地震嘈杂的城市环境,以及敏感的人口,例如城市地区的ATES;2)一个专门的断层带测试站点,以了解断层的透射率和再激活。与会者还建议在试验场、共享设施和风险、联合战略、数据互操作性和国际合作方面进行投资和发展。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Role of Subsurface Geo-Energy Pilot and Demonstration Sites in Delivering Net Zero
Recent research suggests that the effects of climate change are already tangible, making the requirement for net zero more pressing than ever. New emissions targets have been announced in April 2021 by various governments, including by the United Kingdom, United States, and China, prior to the Conference of the Parties (COP26) in Glasgow. Part of the solution for net zero will be geo-energy technologies in the subsurface, these include: mine water geothermal, aquifer thermal energy storage (ATES), enhanced geothermal systems and other thermal storage options, compressed air energy storage (CAES), and carbon dioxide capture and storage (CCS) including bioenergy CCS (BECCS). Subsurface net zero technologies have been studied by geologists at laboratory scale and with models, but also require testing at greater-than laboratory scale and in representative conditions not reproducible in laboratories and models. Test, pilot and demonstration facilities aid rock characterisation process understanding and up-scaling, and thereby provide a bridge between laboratory testing and computer modelling and full-scale operation. Examples of test sites that have progressed technology development include the Otway International Test Centre (Australia, CCS) and the Äspö Hard Rock Laboratory (Sweden, geological radioactive waste disposal). These sites have provided scale up for key research questions allowing science issues of relevance to regulation, licencing and permitting to be examined at scale in controlled environments. Successful operations at such sites allow research to be seen at first hand to inform the public, regulators, supply chain companies and investors that such technologies can work safely and economically. A Geological Society conference on the “Role of subsurface research labs in delivering net zero” in February 2021 considered the value of test sites and gaps in their capability. Gaps were identified in two areas: 1) test facilities to aid the design of low cost, high resolution, unobtrusive seismic and other monitoring for a seismically noisy urban environment with a sensitive human population, for example for ATES in urban areas; and 2) a dedicated through-fault zone test site to understand fault transmissivity and reactivation. Conference participants also recommended investment and development in test sites, shared facilities and risk, joint strategies, data interoperability and international collaboration.
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