Jing Chen provides analysis and recommendations of energy policy best practices as part of RAP's China team. Her research and outreach tailors international perspectives to the context of the clean energy transition in China, with a focus on energy market design.
Chen joined RAP in 2023 after completing her master's in civil and environmental engineering, with a concentration in atmosphere and energy. During her graduate studies, she acquired extensive knowledge of quantitative methods to solve real-world problems, including data analysis, energy system optimization and economic modeling. As part of a strategic economic project exploring electricity markets, Jingying assumed a leadership role, overseeing a simulated day-ahead energy market. She orchestrated key decisions to maximize profit, strategically selling energy, trading REC and forward contracts.
Jingying Chen earned a master’s degree from Stanford University. Before her graduate studies, Chen obtained her bachelor's degree in mechanical engineering, with a minor in climate change studies, from the University of California, San Diego. There she studied the underlying physics of renewable energy and projection methods.
In addition to English, Jingying is fluent in Chinese Mandarin and Cantonese and is able to read and write in Simplified and Traditional Chinese.
How Jingying “Jing” Chen is Energizing Change
可再生能源非电利用背景下,北京新能源供热规模化发展的实践与启示
我国新能源发展已由单一技术规模扩张转向多技术集成融合发展阶段。随着供热(制冷)纳入可再生能源非电消费统计体系,新能源利用正由电力领域进一步向终端供热领域延伸。热泵作为连接新能源利用与终端供热的重要技术载体,可从空气、地热、再生水和工业余热等低品位热源中高效提取热量,替代传统化石能源供热,是推动新能源多元化利用的重要技术路径。 新能源供热规模化发展不仅需要技术进步,更需要目标引导、资源统筹、系统协同和质量保障等制度支撑。本文以北京为例,梳理其推动新能源供热规模化发展,形成以热泵为主体、多元热源协同发展的新能源供热格局的实践经验。在此基础上,本文进一步探讨完善可再生能源非电消费核算制度、建立长期低碳转型导向的发展路径、推动热力系统与电力系统协同规划等关键议题。 China’s renewable energy development has shifted from the large-scale deployment of individual… Read More +
纳入建筑供热,让虚拟电厂“热”起来
随着我国能源转型的深入,虚拟电厂(VPP)已成为提升电力系统灵活性、促进可再生能源消纳的关键技术。然而,在当前的实践中,建筑供热这一具备巨大潜力的灵活性资源尚未获得深入开发。随着分布式供热系统的电气化,热泵及配套蓄热设施正展现出从传统“被动负荷”向“柔性电力资源”转变的巨大潜力。 本文探讨了将建筑供热纳入虚拟电厂的路径与价值。文章提出,区域供热系统可单独参与电力市场,或与其他建筑负荷和分布式能源组成规模化的灵活资源池。这种多能互补的模式不仅能显著提升可再生能源的就地消纳水平,提升电力系统整体灵活性与运行效率,还能为供热企业创造调频、削峰填谷等辅助服务收益,有效降低运行支出。 文章分析了热泵通过虚拟电厂参与电网调度的三种国际实践模式:零售电价响应、需求响应调度及直接参与电力批发市场。基于这些实践经验并针对当前的挑战,本文探讨了一个核心问题:政策制定者该如何推动建筑供热从单纯的“用电终端”转变为“消费调节双向资源”? 由零碳园区引领:鼓励分布式供热站和零碳园区率先开展虚拟电厂实践。 建立标准体系:制定标准化的灵活性测算与验证方法,增强电网对分布式资源的信任。 完善补偿机制:通过优化分时电价信号和健全市场准入,公平补偿虚拟电厂在缓解电网拥塞和提供容量支撑方面的多重价值。 通过政策引导与机制创新,聚合热泵与蓄热资源将为电力系统提供低成本、高可靠的调节能力,实现供热行业转型与电力系统安全运行的“双赢”。 本文首刊于《中国能源观察》2026年2月刊 With the deepening… Read More +
