Offshore carbon storage from power plants based on real option and multi‐period source‐sink matching: A case study in the eastern coastal China

• A CO 2 offshore storage investment decision model for power plants is proposed. • The model is applied to a realistic case study of Zhejiang Province. • Offshore storage is economic feasible at a unit cost of 368.8 CNY/t. • A hybrid policy better incentives offshore storage investment than a single policy. • All 27 sources choose the Qiantang for storage by 2048 at a 250 CNY/t hybrid price. Carbon capture utilization and storage (CCUS) emerges as a pivotal strategy for CO 2 reduction in the power sector, particularly focusing on the overlooked domain of offshore storage along China's east coast. In spite of the potential high costs, irreversible investments, and lengthy development, offshore storage can still be prospective. Considering autonomous decision-making among emission sources, this study pioneers a CO 2 offshore storage investment decision model tailored for coal-fired and gas-fired power plants. Innovating an offshore storage source-sink matching model with a real options model and introducing a pipeline network optimization model allows a realistic source-sink matching strategy to be explored under optimal investment timing. According to the results, among 154 large stationary emission sources in Zhejiang Province, offshore storage could reduce CO 2 emissions by 4.59 Gt, utilizing the Qiantang, Minjiang, and Fuzhou depressions. It is economically feasible to implement offshore storage with a whole-process unit cost of 368.8 CNY/t CO2 , mainly dominated by capture costs. A hybrid carbon tax-subsidy policy promotes carbon reduction and economic benefits, offering a more effective incentive for emission sources to invest in offshore storage than a single policy. At a hybrid policy price of 250 CNY/t CO2 , all 27 selected emission sources are projected to invest in offshore storage by 2048, with a preference for the Qiantang depression as the storage site. Practically, this study provides important technical support and guidance for the large-scale deployment of offshore storage.

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Publication Details

Journal
Carbon Capture Science & Technology
Published
2024-10-17
DOI
https://doi.org/10.1016/j.ccst.2024.100314
Citations
5
Primary Topic
Capital Investment and Risk Analysis
Type
article
Field-Weighted Citation Impact
2.70
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article

Offshore carbon storage from power plants based on real option and multi‐period source‐sink matching: A case study in the eastern coastal China

Xiaodong Li, Long Jiang, Xiaoqing Lin, Qunxing Huang et al.
5 citations
Carbon Capture Science & Technology
Capital Investment and Risk Analysis
2.70
article

Offshore carbon storage from power plants based on real option and multi‐period source‐sink matching: A case study in the eastern coastal China

Xiaodong Li, Long Jiang, Xiaoqing Lin, Qunxing Huang, Yuxuan Ying, Ping Ji, Angjian Wu, Jianhua Yan, Xiaoxiao Zan, Lu Qi
article en
5 citations

Abstract

• A CO 2 offshore storage investment decision model for power plants is proposed. • The model is applied to a realistic case study of Zhejiang Province. • Offshore storage is economic feasible at a unit cost of 368.8 CNY/t. • A hybrid policy better incentives offshore storage investment than a single policy. • All 27 sources choose the Qiantang for storage by 2048 at a 250 CNY/t hybrid price. Carbon capture utilization and storage (CCUS) emerges as a pivotal strategy for CO 2 reduction in the power sector, particularly focusing on the overlooked domain of offshore storage along China's east coast. In spite of the potential high costs, irreversible investments, and lengthy development, offshore storage can still be prospective. Considering autonomous decision-making among emission sources, this study pioneers a CO 2 offshore storage investment decision model tailored for coal-fired and gas-fired power plants. Innovating an offshore storage source-sink matching model with a real options model and introducing a pipeline network optimization model allows a realistic source-sink matching strategy to be explored under optimal investment timing. According to the results, among 154 large stationary emission sources in Zhejiang Province, offshore storage could reduce CO 2 emissions by 4.59 Gt, utilizing the Qiantang, Minjiang, and Fuzhou depressions. It is economically feasible to implement offshore storage with a whole-process unit cost of 368.8 CNY/t CO2 , mainly dominated by capture costs. A hybrid carbon tax-subsidy policy promotes carbon reduction and economic benefits, offering a more effective incentive for emission sources to invest in offshore storage than a single policy. At a hybrid policy price of 250 CNY/t CO2 , all 27 selected emission sources are projected to invest in offshore storage by 2048, with a preference for the Qiantang depression as the storage site. Practically, this study provides important technical support and guidance for the large-scale deployment of offshore storage.

Carbon Capture Science & TechnologyVol. 13
Jiaxing University (CN), China National Chemical Engineering (China) (CN), Zhejiang University (CN)
Openalex Percentile: Top 9%
Capital Investment and Risk Analysis
2.70
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