The Economics of Supply-Side Carbon Mitigation
DOI:
https://doi.org/10.54097/fmw72790Keywords:
Carbon Mitigation, Supply Side, Cobb-Douglas Production Function.Abstract
Carbon emission mitigation not only alleviates environmental externalities but also promotes industrial upgrades and facilitates green development. This paper reviews the impact of supply-side carbon mitigation on the economy and explores the pathways to achieve it. Through the study of the historical context of supply-side emissions reduction, case studies of companies, and theoretical pathways of carbon reduction's impact on socio-economic factors, this article asserts that carbon reduction has yielded tangible results and can sustain economic growth through industrial upgrading and changes in production factors. The Cobb-Douglas production function demonstrates that technological innovation can offset the reduction in production factors caused by emission reduction. Further comparative analysis of wind, solar, and hydrogen energy suggests that existing clean energy technologies still require innovation and cost reduction in order to achieve widespread adoption. Technological innovation can be achieved through subsidies for low-carbon technology research and development and policy support for enterprises and industries. This paper argues that, notwithstanding the significant role of energy in economic development, under the context of supply-side carbon mitigation, it is possible to achieve both carbon reduction and economic growth through technological innovation, improved energy efficiency, enhanced production processes, and the adoption of new green energy sources.
Downloads
References
[1] United Nations Office of Legal Affairs, Paris Agreement, 2015, https://legal.un.org/avl/ha/pa/pa.html.
[2] Meng, Weizhen, Shilin Li, and Jinqiang Yang. Mitigating disaster risks caused by carbon emissions. Economics Letters, 2024, 241: 111817.
[3] Khanna, Nina Z., et al. Conceptualizing demand-side technological and social innovations in modeling pathways to carbon neutrality. Energy Research & Social Science, 2023, 100: 103115.
[4] Nguyen, Hai-Tra, et al. Smart multi-stage energy-emission nexus framework for sustainable supply-demand management and CO2 mitigation. Renewable and Sustainable Energy Reviews, 2025, 214: 115551.
[5] Scott, Kate, et al. Demand vs supply-side approaches to mitigation: What final energy demand assumptions are made to meet 1.5 and 2° C targets? Global Environmental Change, 2022, 72: 102448.
[6] Gaulin, Nicolas, and Philippe Le Billon. Climate change and fossil fuel production cuts: assessing global supply-side constraints and policy implications. Climate Policy, 2020, 20 (8): 888-901.
[7] Bosch. Bolstering green manufacturing- one plant at a time,2025, https://www.bosch.com/sustainability/.
[8] China factory as a Sustainability Lighthouse. World Economic Forum recognizes Schneider Electric’s Wuxi, 2025, https://www.se.com/ww/en/about-us/newsroom/news/press-releases/world-economic-forum-recognizes-schneider-electric%E2%80%99s-wuxi-china-factory-as-a-sustainability-lighthouse-6786009aad70016b280e06f4.
[9] National Energy Administration. The National Energy Administration has published typical cases of green and low-carbon transformation in the energy sector, 2024, https://www.nea.gov.cn/2024-05/19/c_1310775206.htm.
[10] Tian, Xi, et al. Secondary resource curse's formation and transmission mechanism based on environmental externality theory. Resources, Conservation and Recycling, 2020, 161: 104958.
[11] Schumpeter, Joseph A. The Theory of Economic Development. Harvard University Press, 1934.
[12] Colin, Clark. The condition of economic progress. Macmillan, 1940.
[13] Xiao, Anran, et al. Technological progress and economic dynamics: Unveiling the long memory of total factor productivity. Economic Analysis and Policy, 2024, 84: 326-343.
[14] BOUATTOUR, Afef, et al. Relationships between green technological innovation, renewable energy, circular economy, and green growth. Journal of Innovation & Knowledge,2025, 10 (4): 100748.
[15] UNDP. What is the sustainable energy transition and why is it key to tackling climate change? 2025, https://climatepromise.undp.org/news-and-stories/what-sustainable-energy-transition-and-why-it-key-tackling-climate-change.
[16] McKenna, Russell, et al. System impacts of wind energy developments: Key research challenges and opportunities. Joule,2025, 9 (1).
[17] Wang, Lunche, et al. Carbon emissions and reduction performance of photovoltaic systems in China. Renewable and Sustainable Energy Reviews, 2024, 200: 114603.
[18] MIT Climate Portal, How clean is green hydrogen? 2024, https://climate.mit.edu/ask-mit/how-clean-green-hydrogen.
[19] Zhang, Yuechi, Zhuang Miao, and Yangyang Sun. Impact of green and low-carbon technological innovation on green total factor productivity of industrial sector: An analysis based on BAM-DEA model. Sustainable Futures, 2025, 10: 101036.
[20] Fu, Mengyu. Can low-carbon technology transfer accelerate energy efficiency convergence. Energy, 2025, 137365.
[21] Cao, Xiaojuan, Fangyuan Zhong, and Mengbing Du. Can Climate Policy Promote Urban Green Technology Innovation in China? - Evidence from China’s Low-Carbon Pilot Initiatives. Sustainable Futures 2025, 100939.
Downloads
Published
Issue
Section
License

This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.

