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Academic Journal of Environment & Earth Science, 2023, 5(8); doi: 10.25236/AJEE.2023.050801.

The mitigation potential and barriers for climate change in UK housing: A rapid evidence assessment


Tong Wu

Corresponding Author:
Tong Wu

Pingdu Meteorological Bureau, Qingdao, Shandong, China


Global warming is becoming an increasingly serious problem for the whole world, and all countries are looking for effective ways to reduce the emission of carbon dioxide to control the rise of temperature. The UK has set a net zero target of achieving net CO2 emissions of zero by 2030, which is difficult to achieve on current progress, especially since the UK has no effective measures to reduce emissions in the heating of houses. The purpose of this report is to identify the potential for reducing emissions in the housing heating in the UK, to identify suitable solutions and possible obstacles to implementation, and to make reasonable recommendations for proposed solutions.


Climate Change, Global Warming, Carbon Emission, Net-Zero, House Heating

Cite This Paper

Tong Wu. The mitigation potential and barriers for climate change in UK housing: A rapid evidence assessment. Academic Journal of Environment & Earth Science (2023) Vol. 5 Issue 8: 1-9. https://doi.org/10.25236/AJEE.2023.050801.


[1] Alabid, J., Bennadji, A. and Seddiki, M. 2022. A review on the energy retrofit policies and improvements of the UK existing buildings, challenges and benefits. Renewable and Sustainable Energy Reviews. 159, p. 112161. 

[2] Climate Change Committee. (2020). The sixth carbon budget: the UK's path to net zero. 

[3] Eyre, N., & Killip, G. (2019). Shifting the focus: Energy demand in a net-zero carbon UK. 

[4] Gupta, R. and Gregg, M. 2020. Domestic energy mapping to enable area-based whole house retrofits. Energy and Buildings. 229, p. 110514. 

[5] Gupta, R. and Irving, R. 2014. Possible effects of future domestic heat pump installations on the UK energy supply. Energy and Buildings. 84, pp. 94–110. 

[6] IPCC. (2021). The Sixth Assessment Report: Summary for Policymakers. 

[7] Ibrahim, A. and Pelsmakers, S. 2018. Low energy housing retrofit in North England: Overheating risks and possible mitigation strategies. Building Services Engineering Research and Technology. 39(2), pp. 161–172. 

[8] Jing, R., Zhou, Y. and Wu, J. 2022. Electrification with flexibility towards local energy decarbonization. Advances in Applied Energy. 5, p. 100088. 

[9] Kokoni, S. and Leach, M. 2021. Policy mechanisms to support heat pump deployment: A UK case study based on techno-economic modelling. Renewable and Sustainable Energy Transition. 1, p. 100009. 

[10] Lingard, J. 2021. Residential retrofit in the UK: The optimum retrofit measures necessary for effective heat pump use. Building Services Engineering Research and Technology. 42(3), pp. 279–292. 

[11] Pan, W. and Cooper, M. 2011. Decision criteria for selecting air source heat pump technology in UK low carbon housing. Technology Analysis & Strategic Management. 23(6), pp. 623–637. 

[12] Simon, W., Aurelie, L., William, S. 2017. Rapid Evidence Assessment: Financial Services and Small and Medium‐Sized Enterprise Growth and Development. Depart for International Development (DFID)

[13] UK Government. (2021). Net Zero Strategy: Build Back Greener. 

[14] Ürge-Vorsatz, D. and Metz, B. 2009. Energy efficiency: how far does it get us in controlling climate change? Energy Efficiency. 2(2), pp. 87–94. 

[15] Wang, Yuhao, Qu, K., Chen, X., Zhang, X. and Riffat, S. 2022. Holistic electrification vs deep energy retrofits for optimal decarbonisation pathways of UK dwellings: A case study of the 1940s’ British post-war masonry house. Energy. 241, p. 122935. 

[16] Wang, Y., Wang, J. and He, W. 2022. Development of efficient, flexible and affordable heat pumps for supporting heat and power decarbonisation in the UK and beyond: Review and perspectives. Renewable and Sustainable Energy Reviews. 154, p. 111747.