大会以"立足当前、着眼长远、谋划未来"为定位，通过搭建学术、产业、商业等能源各界深度对话平 台，围绕前沿技术、运营模式等重点议题开展专题研讨，精准传递政策方向、及时回应企业诉求的同 时，推动关键技术攻关、标准体系健全以及国际交流合作，为智能微电网高质量发展凝聚共识、汇聚合 力，助力新型电力系统构建与"双碳"目标实现贡献积极力量。 本次大会采用"主论坛+分论坛"形式推进。主论坛设置工作总结、前沿展望、主题演讲、高端对话等主 要环节，分论坛围绕"智创+赋能"双专题，邀请学术、行业专家作交流分享。 会上，智能微电网专委会总结成立以来在技术推广、标准建设等领域的阶段性成果，点明发展瓶颈，清 晰勾勒行业发展脉络。专家代表结合新型电力系统构建、"双碳"目标落地等国家战略作专题发言，进一 步明确微电网的时代定位。 "当前，智能微电网作为能源领域新质生产力的核心载体，正以技术创新与模式变革为驱动，在构建新 型电力系统的进程中实现跨越式发展。结合当前政策导向与产业实际需求，中国能源研究会将依托智能 微电网专业委员会平台，在政策执行、标准与市场建设、技术创新、试点示范引领四大领域重点发力， 共同推动国家智能微电网产业迈向高质量发 ...

Core Insights - The conference on smart microgrid innovation and development was held in Changzhou, Jiangsu, focusing on the theme "Smart Microgrid, Green Future" and aimed to discuss new opportunities for the development of smart microgrids in the energy sector [1][3]. Group 1: Objectives and Goals - The Smart Microgrid Committee aims to support the national "dual carbon" strategy and promote green energy transition, focusing on technological innovation and application in smart microgrids [3]. - The conference is designed to create a dialogue platform across academia, industry, and commerce, addressing key topics such as cutting-edge technologies and operational models while responding to policy directions and enterprise needs [5]. Group 2: Achievements and Developments - The Smart Microgrid Committee highlighted its achievements in technology promotion and standardization, identifying development bottlenecks and outlining the industry's growth trajectory [7]. - The conference showcased the practical efforts and leading outcomes of State Grid Jiangsu Electric Power in advancing high-quality development of microgrids, emphasizing the committee's role as a bridge in promoting technological innovation and industry application [7]. Group 3: Conference Structure and Activities - The conference lasted one day and was structured as a "main forum + sub-forums" format, featuring key segments such as work summaries, forward-looking discussions, keynote speeches, and high-level dialogues [5]. - Prior to the conference, experts and industry representatives conducted in-depth research at typical microgrid demonstration projects, gaining insights into the technological pathways and advanced operational models of Jiangsu's microgrid interactions with the grid [7].

Core Viewpoint - The construction of smart microgrids in Hangzhou faces challenges such as weak corporate willingness, a single profit model, an incomplete market mechanism, and significant safety risks [2][3][7]. Group 1: Current Status and Challenges - Hangzhou's power supply reliability exceeds 99.998%, ensuring sufficient electricity supply and quality, leading companies to prioritize economic returns when investing in photovoltaic and energy storage systems [2][7]. - The current microgrid users in Zhejiang primarily rely on photovoltaic "self-use and surplus electricity online" and energy storage "peak-valley price difference" to save energy costs [2][7]. - The existing market mechanism is not fully developed, with microgrid users mainly depending on limited profit models, and other services like frequency regulation and system backup are not included in market transactions [7][9]. Group 2: Supportive Policies and Technical Standards - National and provincial policies encourage the construction of smart microgrid projects, including the "Action Plan for Accelerating the Construction of a New Power System (2024-2027)" and local implementation opinions that provide financial incentives for photovoltaic projects [4][5]. - Since 2016, over twenty national standards related to microgrids have been released, with ongoing revisions and the establishment of a comprehensive standard system covering various aspects of microgrid development [5]. Group 3: Pilot Projects and Future Directions - Several pilot projects have been initiated in Hangzhou, including the West Lake Aerospace Zero Carbon Smart Energy Center and other integrated demonstration projects [6]. - Future work will focus on identifying key application scenarios, optimizing development strategies based on pilot project experiences, and enhancing policy coordination to support microgrid development [9][10].

Core Viewpoint - The news highlights the development and promotion of intelligent microgrid systems in Tai'an City, emphasizing the integration of new energy systems and the achievement of carbon reduction goals through innovative projects and collaborations [1][2][3]. Group 1: Development and Implementation - Tai'an City has implemented 21 demonstration projects for intelligent microgrids, with 10 completed and operational, and 11 under construction, resulting in the consumption of approximately 26 million kilowatt-hours of green electricity and a reduction of carbon emissions by about 20,000 tons [1]. - The city leads Shandong Province with eight projects selected as pilot projects for integrated source-grid-load-storage systems, and three projects have been submitted for national pilot status in new power system construction [1]. Group 2: Technological Innovation - The focus is on overcoming "bottleneck" technologies, with Tai'an's companies collaborating with universities to develop advanced energy routers based on third-generation semiconductors, achieving system efficiencies exceeding 98% [2]. - A comprehensive microgrid industry chain has begun to take shape, integrating research, production, construction, and operation and maintenance [2]. Group 3: Application and Market Expansion - The city is expanding microgrid applications from single-point demonstrations to comprehensive coverage, with new guidelines promoting the integration of microgrids and virtual power plants into the new energy system [2]. - The "光储直柔" demonstration project has achieved a 100% local utilization rate of green electricity, with an annual consumption of approximately 11 million kilowatt-hours [2]. Group 4: Future Goals - The city aims to establish itself as a benchmark for the province and support the Yellow River strategy by focusing on innovation, project construction, and the development of a unique industrial ecosystem combining green equipment manufacturing, green electricity production, and carbon asset management [3].