环境经济学
采购
操作风险
持续性
资产(计算机安全)
业务
风险管理
稳健性(进化)
火力发电站
风险分析(工程)
计算机科学
资产管理
系统性风险
环境科学
蒙特卡罗方法
风险评估
波动性(金融)
电力系统
碳足迹
碳价格
财务风险
情景分析
碳中和
可靠性工程
能源管理
作者
Ying Kuai,Yue Liu,Wu Wan,Boyan Zou,Yao Qin
出处
期刊:Sustainability
[Multidisciplinary Digital Publishing Institute]
日期:2026-04-20
卷期号:18 (8): 4094-4094
摘要
Against the background of deepening “dual carbon” goals and the continuously tightening policies of the national carbon market, the carbon asset risks faced by thermal power enterprises have shifted from short-term compliance cost fluctuations to medium- and long-term systemic risks. Managing these risks effectively is essential for ensuring the financial viability of thermal power operations during the low-carbon transition, thereby supporting the long-term sustainability of the energy sector. This study constructs a risk management framework for carbon assets in thermal power enterprises based on the LSTM model and option portfolios. First, the multi-dimensional characteristics of medium- and long-term carbon asset risks are systematically identified at the policy, market, and enterprise levels. Second, a dual-layer LSTM model with Dropout regularization is employed to simulate medium- and long-term carbon prices. The prediction results indicate a moderate upward trend in future carbon prices, with the fluctuation range gradually narrowing. On this basis, a combined hedging strategy of “core call options + auxiliary put options” is designed, capping the maximum procurement cost at 72.63 CNY/ton and covering over 90% of the risk of carbon price increases. Monte Carlo simulations and rolling window backtesting, conducted using operational data from a thermal power enterprise to validate the framework, verify the effectiveness and robustness of the strategy. The study shows that, through the integration of accurate LSTM predictions and proactive option hedging, thermal power enterprises can transform their carbon asset management from passive compliance to active value creation, thereby enhancing their operational sustainability and resilience during the energy transition.
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