西安交通大学自动化科学与工程学院,710049,西安
清华大学自动化系,100084,北京
作者简介:刘晋辉(1996—),男,助理教授;
徐占伯(通信作者),男,教授,博士生导师。
团队负责人:管晓宏院士
收稿:2025-09-26,
网络首发:2025-11-14,
纸质出版:2026-04-10
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氢电互补是实现我国“双碳”目标的必然之路,然而氢能引入综合能源系统后,氢、电、冷、热、可再生等多种能源耦合使得零碳能源系统结构设计、运行优化以及控制的复杂性大幅增加。西安交通大学管晓宏教授团队在国家“双碳”目标指引下,在零碳能源系统结构设计、面向零碳运行的优化方法、能碳协同管控技术3个方面取得了开创性成果。首先,设计了氢赋能零碳能源系统供-储-需协同的新结构,提出了氢赋能零碳能源系统规划方法,支撑了百余个建筑或工业园区,数据中心等用能场景的零碳能源系统的最优规划。其次,针对能源系统中存在的供需随机特性以及跨时间尺度差异问题,从计算架构、不确定性建模与动态调度机制切入,提出了一系列创新性运行优化和能碳管理方法,在国际学术前沿取得了系列开创性成果。最后,开发了高效协同、适时交互的智能感知-弹性通信-自主计算-协同优化一体化平台,应用于榆林零碳分布式能源中心,实现系统年化运行成本降低超36%,将每吨标煤能耗碳排放降低至0.19 t,引领了能源系统的绿色化、智慧化发展。未来,氢赋能零碳能源系统在结构设计、运行优化和协同管控3个方向上仍需探索,其技术突破与工程落地将会是能源行业绿色变革的关键。
Hydrogen-electricity complementarity is an inevitable pathway for achieving China's“dual-carbon”goals.However,the integration of hydrogen energy into integrated energy systems significantly increases the complexity of structural design,operational optimization,and control for zero-carbon energy systems,due to the coupling of multiple energy sources such as hydrogen,electricity,cooling,heating,and renewables. Guided by the national“dual-carbon”goals,pioneering achievements have been made by the research team led by professor Guan Xiaohong from Xi'an Jiaotong University in three key areas:the structural design of zero-carbon energy systems,optimization methods for zero-carbon operation,and energy-carbon coordinated management and control technologies. First,a novel“supply-storage-demand”collaborative structure for hydrogen-enabled zero-carbon energy systems was designed,and a corresponding planning method was proposed.This method has supported the optimal planning of zero-carbon energy systems for over 100 energy-consuming scenarios,including buildings,industrial parks,and data centers.Second,to address the stochastic characteristics of supply and demand and cross-timescale differences in energy systems,a series of innovative operational optimization and energycarbon management methods were developed from the perspectives of computational architecture,uncertainty modeling,and dynamic scheduling mechanisms,yielding pioneering results at the international academic frontier.Finally,an integrated platform featuring efficient collaboration and timely interaction,encompassing “intelligent perception,elastic communication,autonomous computing,and collaborative optimization,”was developed.Applied in the Yulin zero-carbon distributed energy center,this platform has achieved a reduction of over 36% in the system's annual operating cost and lowered carbon emissions per ton of standard coal equivalent to 0.19 tons,thereby advancing the green and intelligent development of energy systems.Future exploration in hydrogen-enabled zero-carbon energy systems is still required in the directions of structural design,operational optimization,and coordinated management and control.Technological breakthroughs and engineering implementation in these areas will be pivotal for the green transformation of the energy industry.
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