Will fuel switching ever happened in China’s thermal power sector? The rule of carbon market design
Anqi HE, Huarong PENG
Will fuel switching ever happened in China’s thermal power sector? The rule of carbon market design
To assess the effectiveness of China’s emissions trading scheme (ETS) in facilitating energy structure optimization, we constructed a fuel-switching model utilizing data from 1067 generating units under the Chinese ETS framework. The model simulates the fuel-switching price in China’s thermal power sector, taking into account various allowance allocation strategies. The results show the following: 1) Thermal power plants will transition from coal to gas if the current ETS auction rate surpasses 26%. 2) Furthermore, in scenarios where the ETS operates independently, a transition will occur if the carbon allowance market is entirely auction-based and the carbon price attains 119.50 USD/tCO2. 3) In a collaborative scenario involving both the ETS and a gas feed-in tariff subsidy, a carbon price of 9.39 USD/tCO2 will effect a transition from coal to gas, provided both the auction ratio and subsidy price are maximized.
ETS / thermal power plant / fuel switching / allowance allocation method / feed-in tariff subsidy
[1] |
AbadieL MChamorro J MGonzálezM (2010). Optimal investment in energy efficiency under uncertainty. Working Papers
|
[2] |
Alhajeri, N S Dannoun, M Alrashed, A Aly, A Z (2019). Environmental and economic impacts of increased utilization of natural gas in the electric power generation sector: Evaluating the benefits and trade-offs of fuel switching. Journal of Natural Gas Science and Engineering, 71: 102969
CrossRef
Google scholar
|
[3] |
Bersani, A M Falbo, P Mastroeni, L (2022). Is the ETS an effective environmental policy? Undesired interaction between energy-mix, fuel-switch and electricity prices. Energy Economics, 110: 105981
CrossRef
Google scholar
|
[4] |
Bertrand, V (2014). Carbon and energy prices under uncertainty: A theoretical analysis of fuel switching with heterogeneous power plants. Resource and Energy Economics, 38: 198–220
CrossRef
Google scholar
|
[5] |
BP (2021). Statistical review of world energy 2021. Online Report
|
[6] |
Brehm, P A (2019). Natural gas prices, electric generation investment, and greenhouse gas emissions. Resource and Energy Economics, 58: 101106
CrossRef
Google scholar
|
[7] |
Brehm, P A Zhang, Y (2021). The efficiency and environmental impacts of market organization: Evidence from the Texas electricity market. Energy Economics, 101: 105359
CrossRef
Google scholar
|
[8] |
Carmona, R Fehr, M Hinz, J (2009). Optimal stochastic control and carbon price formation. SIAM Journal on Control and Optimization, 48( 4): 2168–2190
CrossRef
Google scholar
|
[9] |
Chen, H Geng, H P Ling, H T Peng, S Li, N Yu, S Wei, Y M (2020). Modeling the coal-to-gas switch potentials in the power sector: A case study of China. Energy, 192: 116629
CrossRef
Google scholar
|
[10] |
Chen, X G (2019). “Electricity” and “carbon” market coupling, promoting low-carbon development in the power industry. Energy Conservation and Environmental Protection, ( 5): 16–17 (in Chinese)
|
[11] |
ChevallierJ (2012). Econometric Analysis of Carbon Markets: The European Union Emissions Trading Scheme and the Clean Development Mechanism. Dordrecht: Springer
|
[12] |
ContRTankov P (2004). Financial Modelling with Jump Processes. Chapman & Hall/CRC Financial Mathematics Series. London: CRC Press
|
[13] |
Delarue, E Lamberts, H D’haeseleer, W (2007). Simulating greenhouse gas (GHG) allowance cost and GHG emission reduction in Western Europe. Energy, 32( 8): 1299–1309
CrossRef
Google scholar
|
[14] |
Delarue, E D D’haeseleer, W D (2007). Price determination of ETS allowances through the switching level of coal and gas in the power sector. International Journal of Energy Research, 31( 11): 1001–1015
CrossRef
Google scholar
|
[15] |
Delarue, E D Ellerman, A D D’haeseleer, W D (2010). Robust MACCs? The topography of abatement by fuel switching in the European power sector. Energy, 35( 3): 1465–1475
CrossRef
Google scholar
|
[16] |
de Vos, D (2015). Negative wholesale electricity prices in the German, French and Belgian day-ahead, intra-day and real-time markets. Electricity Journal, 28( 4): 36–50
CrossRef
Google scholar
|
[17] |
Elias, R S Wahab, M Fang, L (2016). The spark spread and clean spark spread option based valuation of a power plant with multiple turbines. Energy Economics, 59: 314–327
CrossRef
Google scholar
|
[18] |
Energy News Network (2018). The past and present of “benchmark electricity price” (in Chinese)
|
[19] |
Fan, M He, G Zhou, M (2020). The winter choke: Coal-fired heating, air pollution, and mortality in China. Journal of Health Economics, 71: 102316
CrossRef
Google scholar
|
[20] |
Fang, W (2015). Application of the technology of transforming coal-fired boiler into gas-fired boiler. Zhejiang Metallurgy, ( 2): 4 (in Chinese)
|
[21] |
Gao, X (2016). Study on industrial development of renewable energies in China. Journal of Hunan University of Finance and Economics, 32( 3): 99–105 (in Chinese)
|
[22] |
García-Martos, C Rodriguez, J Sanchez, M J (2013). Modelling and forecasting fossil fuels, CO2 and electricity prices and their volatilities. Applied Energy, 101: 363–375
CrossRef
Google scholar
|
[23] |
Han, Y Shen, B Zhang, T (2017). A techno-economic assessment of fuel switching options of addressing environmental challenges of coal-fired industrial boilers: An analytical work for China. Energy Procedia, 142: 3083–3087
CrossRef
Google scholar
|
[24] |
Hintermann, B (2010). Allowance price drivers in the first phase of the EU ETS. Journal of Environmental Economics and Management, 59( 1): 43–56
CrossRef
Google scholar
|
[25] |
HogueM T (2012). A review of the costs of nuclear power generation. Online Article
|
[26] |
Hu, Q (2023). Research on the correlation between carbon emission permit price and traditional energy price. Market Weekly, 36( 2): 14–18 (in Chinese)
|
[27] |
International Energy Agency (IEA) (2022). Coal 2022: Analysis and forecast to 2025. Online Report
|
[28] |
Ishfaq, R Raja, U Clark, M (2016). Fuel-switch decisions in the electric power industry under environmental regulations. IIE Transactions, 48( 3): 205–219
CrossRef
Google scholar
|
[29] |
Jin, H Ding, Z S Gao, K (2018). Coal price fluctuation characteristics based on jump diffusion process. Technology and Innovation Management, 39( 5): 584–587, 624 (in Chinese)
|
[30] |
Ji, Y Y (2022). Research on low-carbon agriculture under the “Double Carbon” goal. Shanghai Rural Economy, 7: 43–45 (in Chinese)
|
[31] |
Kahrl, F Hu, J Kwok, G Williams, J H (2013). Strategies for expanding natural gas-fired electricity generation in China: Economics and policy. Energy Strategy Reviews, 2( 2): 182–189
CrossRef
Google scholar
|
[32] |
Li, M Kong, Y (2023). Prediction of natural gas price based on time series model. Petroleum and New Energy, 35( 1): 61–66 (in Chinese)
|
[33] |
Li, Q Huang, R Ju, B (2012). Research on the relationship between China’s energy consumption structure and energy conservation and emission reduction. Chinese and Foreign Entrepreneurs, 17: 17–20 (in Chinese)
|
[34] |
Li, Z H Wang, J L Feng, L Y (2021). Opportunities for China in the game of “Carbon Neutrality”. Energy, 3: 33–36 (in Chinese)
|
[35] |
Liang, Q D Feng, X Z Du, X L Zhao, M X Wang, M (2020). Study on the influencing factors of carbon emissions from energy consumption based on LMDI method: Taking Tangshan City as an example. Environment and Sustainable Development, 45( 1): 150–154 (in Chinese)
|
[36] |
LucheroniCMari C (2014). Stochastic LCOE for optimal electricity generation portfolio selection. In: 11th International Conference on the European Energy Market. Krakow: IEEE, 1–8
|
[37] |
Lucheroni, C Mari, C (2017). CO2 volatility impact on energy portfolio choice: A fully stochastic LCOE theory analysis. Applied Energy, 190: 278–290
CrossRef
Google scholar
|
[38] |
Lucheroni, C Mari, C (2018). Risk shaping of optimal electricity portfolios in the stochastic LCOE theory. Computers & Operations Research, 96: 374–385
CrossRef
Google scholar
|
[39] |
Lueken, R Klima, K Griffin, W M Apt, J (2016). The climate and health effects of a USA switch from coal to gas electricity generation. Energy, 109: 1160–1166
CrossRef
Google scholar
|
[40] |
Ma, X H Zhang, G S Tang, H J Liang, Y B (2022). The status and role of natural gas in the construction of clean and low-carbon energy system. Petroleum Science and Technology Forum, 41( 1): 18–28 (in Chinese)
|
[41] |
MatsudaK (2004). Introduction to Merton jump diffusion model. Deparfment of Economics, The Graduate Center, The City Oniversity of New York
|
[42] |
Mo, J Cui, L Duan, H (2021a). Quantifying the implied risk for newly-built coal plant to become stranded asset by carbon pricing. Energy Economics, 99: 105286
CrossRef
Google scholar
|
[43] |
Mo, J Tu, Q Wang, J (2023). Carbon pricing and enterprise productivity: The role of price stabilization mechanism. Energy Economics, 120: 106631
CrossRef
Google scholar
|
[44] |
Mo, J Zhang, W Tu, Q Yuan, J Duan, H Fan, Y Pan, J Zhang, J Meng, Z (2021b). The role of national carbon pricing in phasing out China’s coal power. iScience, 24( 6): 102655
CrossRef
Google scholar
|
[45] |
Murray, B C Maniloff, P T (2015). Why have greenhouse emissions in RGGI states declined? An econometric attribution to economic, energy market, and policy factors. Energy Economics, 51: 581–589
CrossRef
Google scholar
|
[46] |
National Development and Reform Commission (NDRC) (2017). Energy Production and Consumption Revolution Strategy (2016–2030)
|
[47] |
National Development and Reform Commission (NDRC) (2019). Guideline of the National Development and Reform Commission on Deepening the Reform of the Feed-in Tariff Formation Mechanism for Coal-Fired Power Generation
|
[48] |
National Energy Information Platform (2022). Academician Xiangwan DU: Strategic focus on carbon peaking and carbon neutrality
|
[49] |
Qi, S Z He, A Q Zhang, J H (2020). The effective benchmark selection model and simulation in the power sector of China’s ETS. Climate Change Economics, 11( 3): 2041006
CrossRef
Google scholar
|
[50] |
Rad, V Z Torabi, S A Shakouri, G H (2019). Joint electricity generation and transmission expansion planning under integrated gas and power system. Energy, 167: 523–537
CrossRef
Google scholar
|
[51] |
Shan, T (2021). Positioning and development path suggestions of natural gas power generation in China’s energy transition period. China Offshore Oil and Gas, 33( 2): 205–214 (in Chinese)
|
[52] |
SijmJ P MBakker S J AChenYHarmsenH WLiseW (2006). CO2 price dynamics: The implications of EU emissions trading for the price of electricity. In: IEEE Power Engineering Society General Meeting. Montreal, QC: IEEE, 4
|
[53] |
State Grid Energy Research Institute (2020). China Energy and Electricity Outlook 2020 (in Chinese)
|
[54] |
Su, L (2014). Study on technical feasibility of transforming coal-fired boiler into gas-fired boiler. Architectural Engineering Technology and Design, ( 2): 253, 267 (in Chinese)
|
[55] |
Sun, C Liu, Z (2003). Analysis on the feasibility and energy-saving effect of transforming coal-fired boiler to gas-fired boiler. Applied Energy Technology, ( 4): 14–15 (in Chinese)
|
[56] |
Sun, R Xie, L (2020). Research on the relationship between crude oil, natural gas, and coal prices. Prices Monthly, 518( 7): 16–24 (in Chinese)
|
[57] |
Tang, H J Huang, J L Pan, S Q Tang, Q Wang, Y L (2020). Suggestions on assessment and development of China’s proven but undeveloped natural gas reserves. Petroleum Science and Technology Forum, 39( 6): 37–44 (in Chinese)
|
[58] |
WangHWang P (2019). The merger of two swords: Carbon market and electricity market coupled to promote low-carbon development in the power industry. Online Article (in Chinese)
|
[59] |
Wang, W Zhu, B Yang, J (2016). Contribution of natural gas generation on carbon emission reduction. Gas Turbine Technology, 29( 1): 9–11 (in Chinese)
|
[60] |
Wood, J P Jotzo, F (2011). Price floors for emissions trading. Energy Policy, 39( 3): 1746–1753
CrossRef
Google scholar
|
[61] |
Wu, D (2022). Cost comparison and technology: Research of boiler coal to gas. Technology Innovation and Application, 12( 28): 68–71 (in Chinese)
|
[62] |
Wu, J H Huang, Y H (2014). Electricity portfolio planning model incorporating renewable energy characteristics. Applied Energy, 119: 278–287
CrossRef
Google scholar
|
[63] |
Xiao, B Niu, D Guo, X (2016). Can natural gas-fired power generation break through the dilemma in China? A system dynamics analysis. Journal of Cleaner Production, 137: 1191–1204
CrossRef
Google scholar
|
[64] |
XuBZhangY TangH JJin H (2021). Prospect of China’s Natural Gas Industrial Development in the 14th Five-Year Plan Period. Beijing: China Financial Publishing House (in Chinese)
|
[65] |
Xun, Y (2019). Technical analysis of transforming a coal-fired boiler into a gas-fired boiler. China Plant Engineering, 427( 15): 81–82 (in Chinese)
|
[66] |
Yang, G Xu, Z Shen, F (2018). Analysis and prospect of carbon emission reduction in the power generation sector and participation in ETS. Environment Protection, 46( 15): 22–26 (in Chinese)
|
[67] |
Yang, H (2010). Analysis of carbon emission reduction potential of Chinese power companies. Science and Technology Information, ( 6): 157 (in Chinese)
|
[68] |
Yi, B W Xu, J H Fan, Y (2016). Inter-regional power grid planning up to 2030 in China considering renewable energy development and regional pollutant control: A multi-region bottom-up optimization model. Applied Energy, 184: 641–658
CrossRef
Google scholar
|
[69] |
Zhang, D Liu, P Ma, L Li, Z Ni, W (2012). A multi-period modelling and optimization approach to the planning of China’s power sector with consideration of carbon dioxide mitigation. Computers & Chemical Engineering, 37: 227–247
CrossRef
Google scholar
|
[70] |
ZhangS (2019). Engineering characteristics and operation analysis of 1000 MW secondary reheat ultra-supercritical unit. Electric Power Engineering Technology, 38(2): 159–162, 168 (in Chinese)
|
[71] |
Zhang, X Dong, J (2018). Study on the feasibility of transforming coal fired boiler into gas fired boiler. Plant Maintenance Engineering, 425( 11): 134–135 (in Chinese)
|
[72] |
Zhang, X Zhang, Y Li, Z (2017). R&D of key technologies for a high-efficient wide-load-range ultra-supercritical unit and the engineering schemes. Journal of Chinese Society of Power Engineering, 37( 3): 173–178 (in Chinese)
|
[73] |
Zhou, S Wang, J Liang, Y (2021). Development of China’s natural gas industry during the 14th Five-Year Plan in the background of carbon neutrality. Natural Gas Industry, 41( 2): 171–182 (in Chinese)
|
[74] |
Zhuang, W Wang, Y Kang, L Zhu, P X Hu, Q (2021). Analysis of automatic feedwater control for millions of ultra-supercritical units. Advanced Power and Energy Technologies, ( 12): 22–24 (in Chinese)
|
/
〈 | 〉 |