TY - JOUR
T1 - Toward profitable energy futures trading strategies using reinforcement learning incorporating disagreement and connectedness methods enabled by large language models
AU - Cui, Tianxiang
AU - Ye, Yujian
AU - Li, Yiran
AU - Du, Nanjiang
AU - Song, Xingke
AU - Zhu, Yicheng
AU - Yang, Xiaoying
AU - Strbac, Goran
N1 - Publisher Copyright:
© 2025 The Authors
PY - 2025/9
Y1 - 2025/9
N2 - The energy market plays a fundamental role in the global economy, shaping energy prices, inflation, and financial stability across nations. As the world transitions toward low-carbon energy solutions, optimizing trading strategies in this complex and dynamic market has become increasingly critical for investors, polic-ymakers, and energy brokers. Traditional data-driven models often struggle to capture the multifaceted and interconnected factors influencing energy markets, such as macroeconomic conditions, investor sentiment, and the accelerating shift toward decarbonization. To address these challenges, a novel framework is proposed that combines reinforcement learning with methods for analyzing disagreement and connectedness, alongside advanced natural language processing techniques, to develop trading strategies for energy markets. The proposed method integrates structured time-series data with unstructured textual data to incorporate diverse factors, including the interplay between economic influences, green energy transitions, and investor sentiment. The proposed framework also employs a chain-of-reasoning technique to classify investor types, distinguishing between sentiment-driven disagreement and cross-disagreement, and utilizes a connectedness-based method to model the interrelationships among market variables, providing a comprehensive understanding of market dynamics. As a showcase, this framework is applied to the West Texas Intermediate crude oil market, demonstrating its ability to outperform traditional price-prediction-based trading strategies. Experimental results highlight that the proposed framework delivers superior investment returns while addressing key limitations of existing models in terms of data integration and flexibility. This study underscores the potential of the proposed framework as a robust and adaptable solution for optimizing trading strategies across the broader energy market, with particular relevance to the global transition toward sustainable energy systems.
AB - The energy market plays a fundamental role in the global economy, shaping energy prices, inflation, and financial stability across nations. As the world transitions toward low-carbon energy solutions, optimizing trading strategies in this complex and dynamic market has become increasingly critical for investors, polic-ymakers, and energy brokers. Traditional data-driven models often struggle to capture the multifaceted and interconnected factors influencing energy markets, such as macroeconomic conditions, investor sentiment, and the accelerating shift toward decarbonization. To address these challenges, a novel framework is proposed that combines reinforcement learning with methods for analyzing disagreement and connectedness, alongside advanced natural language processing techniques, to develop trading strategies for energy markets. The proposed method integrates structured time-series data with unstructured textual data to incorporate diverse factors, including the interplay between economic influences, green energy transitions, and investor sentiment. The proposed framework also employs a chain-of-reasoning technique to classify investor types, distinguishing between sentiment-driven disagreement and cross-disagreement, and utilizes a connectedness-based method to model the interrelationships among market variables, providing a comprehensive understanding of market dynamics. As a showcase, this framework is applied to the West Texas Intermediate crude oil market, demonstrating its ability to outperform traditional price-prediction-based trading strategies. Experimental results highlight that the proposed framework delivers superior investment returns while addressing key limitations of existing models in terms of data integration and flexibility. This study underscores the potential of the proposed framework as a robust and adaptable solution for optimizing trading strategies across the broader energy market, with particular relevance to the global transition toward sustainable energy systems.
KW - Connectedness analysis
KW - Energy future
KW - Energy market
KW - Investor disagreement
KW - Large language models
KW - Reinforcement learning
UR - https://www.scopus.com/pages/publications/105012388369
U2 - 10.1016/j.egyai.2025.100562
DO - 10.1016/j.egyai.2025.100562
M3 - Article
AN - SCOPUS:105012388369
SN - 2666-5468
VL - 21
JO - Energy and AI
JF - Energy and AI
M1 - 100562
ER -