Smart Energy, Powering a Net-Zero Future 智慧能源,驱动零碳未来 2025 | 9.24-26 第四届钠离子电池产业链与标准发展论坛 参会报名 THE 4TH SODIUM-ION BATTERY INDUSTRY CHAIN AND STANDARDS DEVELOPMENT FORUM | 山东·威海 | 9.24-26 2025 第四届钠离子电池产业链与标准发展论坛 THE 4TH SODIUM-ION BATTERY INDUSTRY CHAIN AND STANDARDS DEVELOPMENT F 主办单位 中国电子技术标准化研究院 中关村储能产业技术联盟 承办单位 威海南海新区管理委员会 動和環 大唐湖北能源开发有限公司 慧唐储能电站负责人 《百兆瓦时级钠离子储能项目实践》 参与完成了大唐龙感湖100MW/200MWh集中共享式储能 项目和大唐湖北50MW/100MWh钢离子新型储能电站科技创新 示范项目,目前负责慧唐储能电站的运维管理(大唐湖北 50MW/100MWh钠离子新型储能电站科技创新示范项目）。对 储能项目的基建、设计技术路线、设备的选型、监造 ...

文 | 昆宇电源 9 月 19 日，昆宇电源常德工厂隆重举行 1.5GWh 钠离子电池产线量产仪式。此次产线总投资达2亿元，是湖南省内首条具备量产 能力的钠离子电池生产线。 尤为突出的是， 产线具备高度柔性生产能力， 可快速响应不同容量规格的产品订单需求，灵活适配市场变化。这条智能化产线的建成 投产，不仅大幅提升了钠离子电池产品的一致性与生产效率，更为钠离子电池规模化、产业化应用筑牢硬件基础。 在钠离子电池技术研发领域，昆宇电源已实现多项关键突破。相较于传统锂离子电池，其钠电产品展现出显著优势：能量效率更高、 低温性能更优异、循环寿命更长、安全性更可靠，市场应用前景更广阔。作为全国首批通过钠离子电池测评单位，昆宇电源始终注重 产学研协同创新，与哈尔滨工业大学、中南大学、哈尔滨工程大学等高校深度合作，同时积极布局 "高功率钠离子电池" "堆叠式钠离 子电池" 等核心专利技术，持续夯实技术壁垒。 目前，昆宇电源的钠离子电池产品已成功落地多个项目： 在中国铁塔甘肃 1 00Ah 钠电项目 —— 这一国内首批通信储能领域钠电储能 产品批量采招项目中，以公开招标第一的成绩成功中标，并与中国移动、中国铁塔紧密合作，在黑龙 ...

Group 1 - The core viewpoint of the article highlights the successful completion of the artificial short-circuit test for the Tibet Ali independent grid-type energy storage project, marking a significant advancement in energy storage technology in high-altitude regions [2] - The project, supported by CRRC Zhuzhou Institute, addresses the challenges of low temperature and low pressure at an altitude of over 4300 meters, providing a stable energy supply for weak grid areas [2][5] - The project is expected to generate over 20 million kilowatt-hours of clean energy annually, effectively filling the energy gap in the Ali region and benefiting thousands of local residents [5] Group 2 - CRRC Zhuzhou Institute has a strong competitive edge in energy storage technology, built on 65 years of experience in algorithms, devices, and materials [3] - The company has achieved breakthroughs in dynamic impedance reshaping and multi-machine coordinated control, suitable for high-altitude environments [4] - The technology enables seamless switching between grid-connected and independent grid modes, addressing issues related to grid inertia support and short-circuit capacity enhancement [8]

Core Viewpoint - The article emphasizes the importance of advancing the high-quality development of energy equipment in China, aiming for a self-controlled, high-end, intelligent, and green energy equipment industry by 2030, which will support the construction of a new energy system and enhance international influence [5][6]. Group 1: Overall Requirements - The initiative is guided by Xi Jinping's thoughts and aims to integrate energy security and transition, focusing on technological innovation and high-quality development of energy equipment [6]. - By 2030, the goal is to achieve significant advancements in the energy equipment supply chain, ensuring global leadership in technology and industry systems [6]. Group 2: Energy Exploration and Development Equipment - The focus is on upgrading coal mining and oil and gas exploration equipment to enhance efficiency and safety in complex geological conditions [7]. - Key technologies include high-power density explosion-proof transmission systems and intelligent construction for deep wells [7]. Group 3: Energy Conversion Equipment - The article discusses the need for low-carbon upgrades in fossil fuel power generation and advancements in renewable energy equipment [8][9]. - Emphasis is placed on developing new generation coal power technologies and enhancing the efficiency of renewable energy systems [8][9]. Group 4: Energy Storage Equipment - The establishment of a high-safety, high-reliability battery storage system is prioritized, focusing on long-life lithium, sodium, and solid-state batteries [11]. - Development of large-capacity physical storage technologies and high-efficiency flywheel storage systems is also highlighted [11]. Group 5: Energy Transmission Equipment - The article outlines the need for breakthroughs in long-distance, high-efficiency transmission technologies for coal, oil, and natural gas [14][15]. - Key developments include high-capacity, low-loss transformers and advanced control systems for smart grids [14][15]. Group 6: Digital and Intelligent Upgrades - The focus is on the digitalization and intelligent upgrades of energy equipment, including autonomous control systems and smart operation technologies [16][17]. - The aim is to create a closed-loop system for energy equipment management, enhancing operational efficiency [16][17]. Group 7: Green and High-End Development - The article emphasizes the importance of green materials and recycling technologies in energy equipment manufacturing [18]. - Development of a comprehensive lifecycle management system for energy equipment is also discussed [18]. Group 8: Innovation Ecosystem - The article advocates for a collaborative innovation ecosystem involving enterprises, research institutions, and government support [19][20]. - It highlights the need for quality management and the establishment of standards to enhance product reliability and safety [20][21]. Group 9: Policy Support - The article calls for increased policy support for key energy equipment projects and innovation initiatives [22]. - It emphasizes the importance of financial incentives and streamlined procurement processes for new energy technologies [22].

Group 1 - The core viewpoint of the article highlights the approval of a 500MW/200MWh battery storage solution project by Trina Solar, which is expected to provide cleaner and more economical energy for Victoria, Australia, upon completion by the end of 2027 [3][5]. - The project has a total scale of 453 million AUD (approximately 2.18 billion RMB) and is strategically located near a high-voltage substation in northeastern Victoria [3][5]. - The battery storage system will store low-cost renewable energy during the day and supply electricity back to the grid during peak demand periods, potentially meeting the energy needs of 172,000 households annually and creating around 86 jobs [5]. Group 2 - The article mentions significant growth in the energy storage industry, with new energy storage installations reaching 2.9GW/7.97GWh in August, marking a year-on-year increase of 285% and 354% respectively [7]. - It also references the release of a new action plan by two ministries aimed at scaling up new energy storage construction, projecting an installation target of 180GW by 2027 [7].

文 | 人民日报客户端 近日，华能陇东能源基地新能源项目配套F1储能项目已全面建成，具备受电条件。 陇东特高压工程配套新能源华能庆阳风光综合新能源示范项目配套储能项目，分两个区块建设储能电 站，F1区块位于环县虎洞镇贾驿村， 概算投资10亿元，容量30万千瓦/120万千瓦时 ， 项目投运后 预计年消纳新能源电量4.2亿千瓦时，一次充电可储存约120万千瓦时电量，最大可满足24万户居民一 天的用电需求。 据了解，该项目储能设备采用 华能自主研发的单级分散式储能技术 ，该技术对电池的兼容性更强， 能够提升电池的安全性能，相较于传统的集中式储能技术， 分散式储能技术能够从根源上解决簇间环 流与能量衰减问题 ，更好地提升电网稳定性，进一步保障国家能源安全。 据华能陇东能源公司生产管理部副主任郝伟伟介绍，F1项目主要分为四部分，包括储能、调相机和升 压站及风光项目，目前储能项目已全部安装调试完成，等待下一步并网调试，升压站及风光项目目前 已经带电运行，两台调相机已经安装就位，进入收尾阶段。 1GW/4GWh！新疆超大容量独立储能电站投运 全球最大"超级电容+锂电池"混合储能电站并网！ 据了解，"陇电入鲁"工程是国家"十 ...

文 | 成都市经济和信息化局 9月18日，成都市经济和信息化局消息，成都市2024年储能项目运营补贴申报已经开启。此次 项目申报面向2023年以来新建投运的储能项目（抽水蓄能项目除外），且满足装机规模不低于 100kW、建成后年利用小时数不低于600小时的条件，独立储能项目按照年完全充放电次数不低 于250次执行。 当前，成都正鼓励和引导储能发展应用，助力电力系统顶峰、调峰、应急备用。在补贴标准上， 具体将按照储能设施 每年实际放电量，给予0.3元/千瓦时运营补贴 ，装机规模5万千瓦以下 的，单个项目年度最高补贴为500万元；装机规模5万千瓦（含）至10万千瓦以下的，单个项目 年度最高补贴为800万元；装机规模10万千瓦（含）以上的，单个项目年度最高补贴为1000万 元。 据了解，此次进行申报的储能系统及辅助设施应具备远程运行数据传输和接受远程调控的功能， 接入到新型电力负荷管理系统；储能项目须符合国家有关规范、标准等规定，且符合相关接入电 网的技术要求。储能项目业主企业主动对接供电公司核实后，可在10月15日前自行登录成都 市"天府蓉易享"平台进行申报。 成都市经济和信息化局关于开展2024年储能项目运营补 ...

Core Viewpoint - The establishment of the Shenzhen Yuanzhi Gangxin Energy Storage Fund aims to explore new pathways for the collaborative development of the new energy storage industry, with a planned fundraising scale of 600 million yuan, focusing on commercial energy storage projects [2][3]. Group 1: Fund Establishment and Structure - The Shenzhen Yuanzhi Gangxin Energy Storage Fund is a collaboration between XINWANDA, Honghua Smart Energy, and Shenzhen Capital Group, with an initial fundraising target of 300 million yuan [2]. - The fund is managed by Shenzhen Yuanzhi Energy Storage Private Equity Fund Management Co., Ltd., marking it as the first commercial energy storage asset investment fund established since the Shenzhen Energy Storage Fund's inception [2]. Group 2: Industry Impact and Strategic Goals - The fund aims to transform energy technology companies from traditional "heavy asset operators" to "comprehensive energy asset management and service platforms," addressing funding challenges in commercial energy storage project development [3]. - XINWANDA will leverage this fund to enhance technological innovation and deepen collaboration with industry chain enterprises, reinforcing its comprehensive advantages in new energy storage system integration, battery technology, and energy management services [3].

Core Viewpoint - The article emphasizes the potential of the new energy storage industry, driven by the integration of artificial intelligence and digital technologies, to enhance efficiency and sustainability in the context of global energy transformation [2][4][6]. Group 1: Market Expansion and Policy Changes - The global new energy storage market is expected to grow significantly, with an estimated addition of 72GW/193GWh by 2025, and China projected to contribute over 38GW due to its large market demand [4]. - A major policy shift is underway, with the National Development and Reform Commission and the National Energy Administration promoting market-driven development for new energy storage, moving away from policy-driven models [4]. Group 2: Challenges in the New Energy Storage Industry - The integration of renewable energy into the grid presents challenges due to its intermittent nature, complicating the scheduling of new energy storage systems [6]. - Despite advancements in storage system integration technology, many manufacturers still rely on traditional hardware stacking, leading to product homogeneity and a lack of comprehensive data management [6]. Group 3: Digital Management and AI Integration - Establishing a full lifecycle digital management system is crucial for the new energy storage sector to ensure safety, efficiency, and sustainability [7]. - AI technology is transforming the energy storage ecosystem, enhancing project planning, equipment design, predictive maintenance, intelligent scheduling, and safety monitoring [7][9]. Group 4: Implementation Strategies - Precise digital modeling should be established from the R&D phase, integrating various data models to enhance system performance [8]. - A traceable production data system is necessary for flexible manufacturing and quality assurance during the manufacturing phase [8]. - During the operational phase, AI can optimize the configuration of new energy and storage systems, including real-time price prediction and power forecasting [9]. Group 5: Collaborative Efforts and Future Outlook - The success of these innovations relies on close collaboration among stakeholders across the energy storage value chain [9]. - The company aims to leverage the "BRICS cooperation" platform to enhance resource connectivity and foster innovative partnerships for energy structure transformation [9].

Core Viewpoint - The article outlines the implementation plan for the market-oriented reform of renewable energy grid connection prices in Guangdong Province, aiming for all renewable energy projects to participate in market trading by November 1, 2025, thereby promoting high-quality development of renewable energy [15][27]. Summary by Sections Overall Goals - The plan aims to establish a sustainable pricing settlement mechanism for renewable energy, ensuring that by the end of 2025, all renewable energy grid connection prices are determined by the market [15]. Main Principles - The reform emphasizes equal participation of renewable energy and thermal power in the electricity market, prioritizing efficiency and risk control while ensuring a stable and transparent market environment [16][17]. Key Tasks - **Market Participation**: From November 1, 2025, all renewable energy projects will enter the electricity market, with prices determined through market transactions. Projects below 10 kV are encouraged to participate in market trading [18]. - **Market Mechanism**: The trading mechanism will allow renewable energy projects to participate in various trading cycles, and the pricing mechanism will be adjusted based on market conditions [19][20]. - **Support Mechanisms**: A price settlement mechanism will be established for renewable energy projects, with provisions for price adjustments based on market performance [20][21]. Existing Projects - **Capacity and Pricing**: Existing projects will have a mechanism price based on the provincial coal-fired power benchmark price of 0.453 yuan/kWh, with specific limits on the proportion of electricity that can be sold [21][22]. - **Execution Period**: The execution period for existing projects will be determined based on their operational history, with a maximum of 20 years [22]. Incremental Projects - **Scope and Pricing**: New projects starting from June 1, 2025, will be categorized and priced based on their type, with specific bidding limits and price ranges established [22][23]. - **Bidding Mechanism**: The bidding process will prioritize projects based on their quoted prices, with a maximum price cap set to avoid disorderly competition [23]. Policy Coordination - The plan emphasizes the need for coordination between the reform and green electricity certificate mechanisms, as well as the integration of energy storage solutions to enhance renewable energy utilization [24]. Implementation Measures - The article outlines measures to revise electricity market trading rules, improve technical support, and ensure effective contract signing and information dissemination [25][26]. Execution Timeline - The implementation of this plan will commence on November 1, 2025 [27].