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Details of Grant 

EPSRC Reference: EP/W010828/1
Title: High-performance ultra-low-carbon Geopolymer heat Battery for thermochemical energy storage in net-zero buildings (GeoBattery)
Principal Investigator: Ke, Dr X
Other Investigators:
Researcher Co-Investigators:
Project Partners:
First Graphene (UK) Ltd SPECIFIC Innovation and Knowledge Ctr University of Birmingham
Department: Architecture and Civil Engineering
Organisation: University of Bath
Scheme: New Investigator Award
Starts: 01 March 2022 Ends: 29 February 2024 Value (£): 318,435
EPSRC Research Topic Classifications:
Complex fluids & soft solids Materials testing & eng.
Power Electronics
EPSRC Industrial Sector Classifications:
Energy
Related Grants:
Panel History:
Panel DatePanel NameOutcome
07 Dec 2021 Engineering Prioritisation Panel Meeting 7 and 8 December 2021 Announced
Summary on Grant Application Form
Space heating currently accounts for 25% of the UK's energy consumption and 17% of its carbon emissions. The effective and efficient recovery, storage, and reuse of waste heat, together with renewable energy, play indispensable roles in decarbonisation of heating in buildings. The thermochemical energy storage materials possess the highest volumetric energy density comparing to phase change and sensible heat storage materials. However, the design and manufacture of thermochemical energy storage materials are still facing the challenges of high cost, low sustainability, and limited heating power. There also lacks fundamental understandings of the properties of materials that control the cyclic energy storage performances and structural stabilities. These have brought significant challenges to optimisation and implementation of the thermochemical energy storage techniques for domestic application.

This project adopts novel research approaches for civil engineering materials to tackle these standing challenges faced by developing thermochemical energy storage materials. Versatile high-performance heat battery materials will be developed from sustainable low-cost civil engineering material geopolymers. Lightweight geopolymer composite materials with enhanced heat and mass transport properties and thermochemical energy storage capacity will be developed through green synthesis routes. The first structural stability assessment model for predicting the service cycle life of heat battery materials will be proposed from the extended chemo-mechanical salt damage model for inorganic porous building materials. The materials fabrication technology and fundamental understanding of the degradation mechanism developed in this project will be transferable to versatile "salt-in-matrix" TCES composites. The outcomes developed from this project will drastically improve the sustainability and resilience of thermal energy storage technologies, for decarbonisation of heating in existing and new-built buildings.

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Organisation Website: http://www.bath.ac.uk