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基于多智能体伦理增强技术的多微电网电-碳联合点对点交易方法
Multi-Microgrids Peer to Peer Electricity-Carbon Joint Trading Method Based on Multi-Agent Ethical Enhancement Technology
| 作者 | Fashun Shi · Lin Cheng · Yuguang Song · Pengjie Zhao · Yufei Xi · Kunyu Zhang · Haiwang Zhong |
| 期刊 | IEEE Transactions on Industry Applications |
| 出版日期 | 2025年10月 |
| 卷/期 | 第 62 卷 第 2 期 |
| 技术分类 | 智能化与AI应用 |
| 技术标签 | 强化学习 微电网 储能变流器PCS 并网逆变器 |
| 相关度评分 | ★★★★★ 5.0 / 5.0 |
| 关键词 |
语言:
中文摘要
本文提出一种融合伦理原则的多智能体安全强化学习算法,用于多微电网电-碳联合能量管理。通过引入碳交易机制、上置信界-增广拉格朗日安全RL框架及几何变换隐私保护模块,在保障电力平衡与低碳经济运行的同时,实现‘不伤害’与隐私保护双重伦理目标。
English Abstract
Electricity-carbon joint energy management (ECCEM) for multi-microgrids (MGs) has great potential to promote renewable energy accommodation, balance the benefits of MGs, and reduce carbon emissions. This article proposes a multi-agent safe reinforcement learning algorithm incorporating ethical principles for ECCEM of MGs to achieve low-carbon economic operation of MGs while ensuring adherence to human ethical values. First, to reduce carbon emissions, carbon trading is integrated into the P2P trading model, and a novel joint electricity-carbon trading framework is proposed. Then, a safe deep reinforcement learning method based on the upper confidence bound and augmented lagrangian framework was designed to address the physical security of electricity power balancing while aligning with ethical principles of do-no-harm. Finally, a privacy protection module based on equidistant geometric transformations has been designed to ensure data privacy during the multi-participant bidding process in the P2P market, adhering to ethical principles of privacy. Case studies involving a four-MGs demonstrate that the proposed method achieves not only the primary goals of reducing carbon emissions, improving economics, and promoting renewable energy accommodation in the process of MGs electricity-carbon trading, but also achieves the ethical goals of do-no-harm and privacy protection.
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SunView 深度解读
该研究高度契合阳光电源在光储协同与智能微电网领域的战略布局。其电-碳联合P2P交易框架可直接赋能iSolarCloud平台升级为碳感知型智能运维系统;安全强化学习算法可用于优化ST系列PCS及PowerTitan在多微网场景下的动态功率分配与碳足迹追踪;隐私保护模块亦可集成至组串式逆变器边缘侧决策单元,支撑分布式能源市场化交易。建议在PowerStack虚拟电厂试点中嵌入该算法,强化阳光电源在新型电力系统低碳智能调度中的技术领导力。