Decarbonising Heating and Cooling
Durham research is leading the way in addressing what is now the most pressing area of energy innovation needed to meet net zero.
Heat is used for domestic, commercial and industrial purposes and accounts for around a third of UK greenhouse gas (GHG) emissions. Other large emissions sources include power generation, transport, industrial processes and agriculture. Around 50% of heat emissions come from the domestic sector, 20% from the commercial sector and 30% from the industrial sector. In the UK domestic and commercial setting, 98% of GHG emissions from heat come from space and water heating, with 2% from cooking. In the industrial sector, only 13% come from space and water heating; the rest are from specialised industrial processes.
Research into new low carbon heating resources and technologies, and their deployment in different societies stretches across multiple disciplines and research centres at Durham University, including the Durham Heat Hub and Network for Decarbonising Heating and Cooling. DEI brings together these multidisciplinary capabilities and provides links and information to policy makers, industry and communities. Our main areas of research expertise include:
- Geothermal energy
- Low grade energy recovery
- Hydrogen for heating and cooling
- Thermochemical innovation
- Thermal Storage
- Combined heat and power (CHP)
- Thermal energy management
- Heritage Retrofitting
- Affordable warmth
Heat is used for domestic, commercial and industrial purposes and accounts for around a third of UK greenhouse gas (GHG) emissions. Other large emissions sources include power generation, transport, industrial processes and agriculture. Around 50% of heat emissions come from the domestic sector, 20% from the commercial sector and 30% from the industrial sector. In the UK domestic and commercial setting, 98% of GHG emissions from heat come from space and water heating, with 2% from cooking. In the industrial sector, only 13% come from space and water heating; the rest are from specialised industrial processes.
Heat decarbonisation is now the most pressing area of energy innovation required to achieve our net zero targets, and the transition to lower carbon heating solutions is a key strategic area at DEI.
Current Research Projects:
- Network for Heating and Cooling Research to Enable a Net-Zero Carbon Future (H+C Zero Network)
- Geothermal Energy from Mines and Solar
- Decarbonisation of Low Temperature Process Heat Industry (DELTA PHI)
- Energy Recovery of Ultra Low Grade Sources using Absorption Thermal Battery
- Immersion cooling and heat storage technologies for HPC
- Durham Heat Hub
- Advanced hybrid thermochemical-compression seasonal solar energy storage and heat pump system (Solar SH&P)
Completed Research Projects:
- Net Zero Geothermal Research for District Infrastructure Engineering
- Thermal Energy Challenge Network
- A decarbonisation plan for the Church of England
- Solid Wall Insulation Innovation
- Heat Supply through Solar Thermochemical Residential Seasonal Storage
- H-DisNet: Intelligent Hybrid Thermo-Chemical District Networks
- UK-India Foundation Industries Sustainable Thermal Energy Management Collaboration
Decarbonising Heating Researchers
Staff | Expertise |
---|---|
Simone Abram | Energy futures and infrastructures, anthropology of energy, just energy transitions, social and political aspects of heating. |
Huashan Bao | Thermochemical technology for heating, cooling, energy storage, waste heat recovery and power generation. |
Jon Gluyas | Geothermal, minewater heat, helium, carbon capture and storage and rare earth minerals. |
Janie Ling-Chin | Thermal energy systems, health index for energy storage, LCA for new energy systems, CCUS. |
Zhiwei Ma | Thermal energy storage, low-grade heat utilization, and novel thermodynamic cycle development for heating, cooling, dehumidification and power generation. |
Tony Roskilly | Energy systems integration, thermal energy systems, hydrogen transport, hydrogen energy converters, thermo-chemical district heating networks. |
Sumit Roy | Combined heat and power systems, hydrogen based economy, biofuels, future energy systems. |
Andrew Smallbone | Energy systems integration, hydrogen transportation, hydrogen energy converters, thermo-chemical district heating networks, CCUS. |
Hongjian Sun | Smart networks data processing and communications, demand side management and demand response, artificial intelligence for energy systems, renewable energy sources integration. |
Jeroen Van Hunen | Modelling of geothermal heat extracted from abandoned, flooded mines; Carbon Capture and Storage; Sustainable, renewable, or clean energy solutions. |
Yaodong Wang | Energy systems, including biomass and biofuels, trigeneration and cogeneration with thermal storage, renewable energy systems, organic Rankine cycle, thermal energy management, and building energy saving. |