Integrating district heating potentials into European energy system modelling: An assessment of cost advantages of renewable and excess heat
Publication date
2024-08
Authors
Billerbeck, Anna
Bernath, Christiane
Manz, Pia
Deac, Gerda
Held, Anne
Winkler, Jenny
Kök, Ali
Ragwitz, Mario
Editors
Advisors
Supervisors
Document Type
Article
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Abstract
This paper takes a novel modelling approach by considering high spatial resolution heat generation potentials for district heating and integrating them into a European energy system model. Subsequently, a modelling analysis of an integrated energy system including district heating, electricity and hydrogen supply for 25 EU Member States and the year 2050 is carried out. In contrast to existing approaches, the modelling approach captures the heterogeneous resource availability in district heating. The results show multivalent district heating networks based on a wide range of renewable and excess heat sources used directly or in combination with large-scale heat pumps. The high spatial resolution of the heat generation potentials allows a detailed cost comparison of different possible future technology mixes in district heating. The paper finds that the use of heat pumps, geothermal energy and industrial excess heat offer slight cost advantages for the energy system as a whole. Geothermal heat can also provide cost advantages for district heating generation.
Keywords
District heating, energy systems modelling, heat pump, Optimisation, renewable and excess heat, Renewable Energy, Sustainability and the Environment, Energy Engineering and Power Technology, Energy (miscellaneous), Mechanical Engineering, Management, Monitoring, Policy and Law, SDG 7 - Affordable and Clean Energy
Citation
Billerbeck, A, Bernath, C, Manz, P, Deac, G, Held, A, Winkler, J, Kök, A & Ragwitz, M 2024, 'Integrating district heating potentials into European energy system modelling : An assessment of cost advantages of renewable and excess heat', Smart Energy, vol. 15, 100150, pp. 1-13. https://doi.org/10.1016/j.segy.2024.100150