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Evidence Gathering: Thermal Energy Storage (TES) Technologies 1 Opportunities, applications and value of Thermal Energy Storage (TES) 1.1 Uses and potential of TES Meeting the UK’s 2050 climate change target will require a near complete decarbonisation of heat (Committee on Climate Change, 2015). The Committee on Climate Change identifies electrically driven heat pumps as a promising option to help meet this target, together with district heating (otherwise known as heat networks) served by low-carbon sources of heat. While it expects energy efficiency to play a key role in decarbonising heat, renewable and low-carbon forms of heat will be required to reduce the carbon intensity of the UK’s heat supply. Challenges for the decarbonisation of heat Currently the penetration of renewable and low carbon heat sources in the UK is limited. The balance between different future heat sources is unknown, but could comprise significant growth in technologies such as electric heating (including heat pumps), solar thermal, and combined heat and power. Technologies such as this would bring a number of challenges including: Additional strains on the UK electricity grid from demand patterns of heat pumps and other electricity based heating technologies, as well as intermittent production of renewable energy. Time constrained heat production, e.g. from solar based technologies that only generate during daytime and produce most energy in the summer. Mismatches between CHP operation and the needs of the electricity sector. All the above challenges could be mitigated through the storage of energy. Therefore, TES, specifically heat storage in the UK, potentially has a key role to play in supporting the achievement of the UK’s future decarbonisation targets for heat and electricity. Six key applications for TES We define six key applications for TES based on the deployment type being distinguished by two key variables as outlined below: Type of location / application, i.e. district heating / industrial, non-domestic and domestic. Duration and discharge cycles. For the purpose of this analysis these are defined as intra-day storage and interseasonal storage. 15PDF Image | Thermal Energy Storage (TES) Technologies
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