The potential for heat recovery and thermal energy storage in the UK using buried infrastructure

F. Loveridge, A. Schellart, S. Rees, R. Stirling, D. Taborda, S. Tait, L. Alibardi, G. Biscontin, P. Shepley, I. Shafagh, W. Shepherd, A. Yildiz, B. Jefferson
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引用次数: 4

Abstract

Dispersed space heating alone accounts for 40% of UK energy use and 20% of CO2 emissions. Tackling heating and building cooling demands is therefore critical to achieve net zero ambitions in the UK. The most energy efficient way to decarbonise heating and cooling is through the use of ground source heat pumps and district heating technology. However, capital costs are often high, sometimes prohibitively so. To reduce investment costs, it is proposed to use buried infrastructure as sources and stores of thermal energy. Barriers to this innovative approach include lack of knowledge about the actual net amount of recoverable energy, and impacts on the primary function of any buried infrastructure, as well as the need for new investment and governance strategies integrated across the energy and infrastructure sectors. Additional opportunities from thermal utilisation in buried infrastructure include the potential mitigation of damaging biological and/or chemical processes that may occur. This paper presents a first assessment of the scale of the opportunity for thermal energy recovery and storage linked to new and existing buried infrastructure, along with strategic measures to help reduce barriers and start the UK on the journey to achieving of its infrastructure energy potential.
英国利用地埋基础设施进行热回收和热能储存的潜力
仅分散空间供暖就占英国能源消耗的40%,二氧化碳排放量的20%。因此,解决供暖和建筑制冷需求对于实现英国的净零排放目标至关重要。脱碳供暖和制冷的最节能方法是使用地源热泵和区域供热技术。然而,资本成本往往很高,有时高得令人望而却步。为了降低投资成本,建议使用地埋基础设施作为热能的来源和储存。这种创新方法的障碍包括缺乏对可采能源的实际净储量的了解,对任何埋藏基础设施的主要功能的影响,以及对跨能源和基础设施部门整合的新投资和治理战略的需求。埋地基础设施热利用的其他机会包括可能减轻可能发生的破坏性生物和/或化学过程。本文首次评估了与新的和现有的地下基础设施相关的热能回收和储存的机会规模,以及帮助减少障碍并开始英国实现其基础设施能源潜力的战略措施。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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CiteScore
2.70
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