Core Insights - The article provides an analysis of the energy storage bidding market in September, highlighting trends in bidding segments and technological diversification in energy storage solutions [2][3]. Bidding Market Overview - In September 2025, a total of 247 bidding segments were tracked, representing a year-on-year decrease of 7.8% but a month-on-month increase of 4.2%. This includes various categories such as EPC, energy storage systems, batteries, and more [4]. - The bidding segments for energy storage systems totaled 59, down 35.9% year-on-year but up 3.5% month-on-month. EPC bidding segments reached 160, showing a year-on-year increase of 3.2% and a month-on-month increase of 9.6% [5]. Bidding Scale - The EPC bidding scale reached a historical high of 12.4 GW/32.4 GWh, reflecting a year-on-year increase of 52.9%/47.3% and a month-on-month increase of 21.3%/4.3%. The energy storage system bidding scale was 2.9 GW/9.3 GWh, with a year-on-year increase of 58.4%/125.3% but a month-on-month decrease of 34.4%/43.4% [6][8]. Application Distribution - In September, the EPC bidding scale growth was primarily driven by grid-side projects, reaching 29.4 GWh (90.7% of total), with a year-on-year increase of 124.6% and a month-on-month increase of 13.1%. User-side bidding also saw significant growth, reaching 2.1 GWh, up 177.5% year-on-year and 78.9% month-on-month [10]. Technological Diversification - The bidding projects in September exhibited a notable trend towards technological diversification. Lithium-ion batteries remained dominant at 86.7%, but there was a decrease compared to previous months. Non-lithium storage technologies, such as compressed air and flow batteries, showed active participation [12][14]. Bidding Entities - The number of bidding entities for energy storage systems totaled 60, down 33.3% year-on-year but up 1.7% month-on-month. For EPC, there were 138 entities, showing a slight year-on-year decrease of 0.7% but a month-on-month increase of 12.2% [14].

Core Viewpoint - The article highlights the strategic partnership between Arctech Solar and Aypa Power for the development of two significant energy storage projects in Ontario, Canada, which will enhance the province's energy infrastructure and storage capacity [1][4]. Group 1: Project Details - Arctech Solar's subsidiary, Arctech Energy Technology Co., Ltd., has signed a Battery Supply Agreement (BSA) and a Long-Term Service Agreement (LTSA) with Aypa Power for the "Elora" and "Hedley" battery storage projects [1][4]. - The combined installed capacity of the two projects is 420 MW and 2,122 MWh, making them among the largest energy storage facilities currently under development in Ontario [4]. - The projects will utilize Arctech's large-scale energy storage product, SolBank, with equipment delivery scheduled to begin in Q1 2026 and commercial operation expected in the first half of 2027 [4]. Group 2: Operational and Financial Aspects - Following the projects' commissioning, Arctech Energy will provide comprehensive operational maintenance services under the 20-year LTSA, ensuring the systems operate safely and reliably throughout their lifecycle [4]. - This partnership reinforces Ontario's leadership in large-scale energy storage deployment and demonstrates the ongoing collaboration between Arctech and Aypa Power in advancing critical energy infrastructure in North America [4].

Core Viewpoint - The forum emphasizes the critical importance of safety in the energy storage industry, highlighting the need for a comprehensive safety evaluation system and collaborative efforts across various sectors to mitigate risks associated with lithium-ion battery storage [9][11][37]. Group 1: Event Overview - The fifth Energy Storage Safety Forum and the National Key R&D Program project meeting were held in Tianjin, attracting over 600 participants and more than 40,000 online viewers [2]. - The event was co-hosted by several organizations, including the Zhongguancun Energy Storage Industry Technology Alliance and the Tianjin Fire Research Institute [3][5]. Group 2: Key Presentations - Professor Zhang Laibin discussed the advantages and challenges of using deep underground space for physical energy storage, emphasizing the importance of addressing safety issues for better development [15]. - Professor Sun Jinhua presented a systematic solution for fire safety in electrochemical energy storage, advocating for a three-tiered safety approach [16]. - Professor Xie Jia highlighted the significant energy contained in a 20-foot 314Ah energy storage container, equating it to 24 tons of TNT, and stressed the need for effective thermal runaway prevention strategies [19]. - Professor Chen Haosen introduced AI technologies for enhancing battery safety, focusing on real-time monitoring and predictive maintenance [20]. Group 3: Safety Evaluation and Guidelines - The Tianjin Fire Research Institute has developed a comprehensive safety evaluation system for lithium-ion battery storage, covering all levels from individual cells to entire power stations [23]. - The release of the "Self-Regulation Practice Guide" marks a significant milestone for the industry, providing normative guidance for containerized lithium battery storage systems [27][30]. Group 4: Forum Discussions - The forum included three parallel sub-forums focusing on safety technology innovations, fault diagnosis, and AI applications in energy storage safety [31][33][34]. - Experts shared insights on enhancing system reliability through advanced management techniques and the integration of AI for predictive safety measures [33][34]. Group 5: Conclusion and Future Outlook - The forum underscored the consensus that safety is the foundation for the scalable development of the energy storage industry, emphasizing the need to establish robust safety standards to maximize the sector's value in energy transition [37].

Core Viewpoint - The Guangdong Power Trading Center has released two rules regarding the sustainable development pricing settlement mechanism for new energy projects, aiming to enhance market-oriented pricing and support the high-quality development of the new energy sector [2][7]. Group 1: Auction Rules - The auction for new energy projects will be organized annually at the end of each year, starting with the first auction in the fourth quarter of 2025 [4][14]. - Eligible projects include those that are completed and have government approval after June 1, 2025, excluding offshore wind projects determined before this date [3][14]. - The auction will allow project investors to submit bids, which can be modified or withdrawn before the deadline [4][20]. Group 2: Pricing Mechanism - The pricing mechanism for new energy projects will include a price difference settlement based on the average market price for different types of renewable energy, such as offshore wind, other wind, and solar [5][32]. - The execution period for the pricing mechanism will be 14 years for offshore wind projects and 12 years for solar projects, after which the mechanism price will no longer apply [22][29]. Group 3: Settlement Process - The settlement of the price difference will occur monthly, with the average market price calculated based on the actual power generation of the projects [31][39]. - The projects must meet the "four conditions" (observable, measurable, adjustable, controllable) before the pricing mechanism can be executed [22][27]. Group 4: Responsibilities and Management - The responsibilities for managing the new energy projects are divided among various entities, including power grid companies, trading institutions, and local energy authorities [29][30]. - A credit management system will be implemented to ensure compliance and maintain fair competition among auction participants [28].

Core Viewpoint - The establishment of Yan'an Waneng Electric Power Co., Ltd. by Waneng Electric Power, Sunshine New Energy, and Guoxuan New Energy marks significant progress in the "Shan Electric into Anhui" project, which is part of China's 14th Five-Year Plan for power development [2][3]. Group 1: Project Overview - The Shanbei-Anhui UHVDC project will start from the comprehensive energy base in Yan'an, Shaanxi, and will include 4 x 1 million kW of thermal power, 1,100 million kW of renewable energy, and 220 million kW of 2-hour electrochemical energy storage [2]. - Once completed, the project is expected to deliver over 36 billion kWh of electricity annually, with renewable energy accounting for no less than 50% of the total [2]. Group 2: Company Details - Yan'an Waneng Electric Power Co., Ltd. has a registered capital of 500 million yuan, with Waneng Group holding the majority stake, while Sunshine New Energy and Guoxuan New Energy also participate in shareholding [3]. - The company's business scope includes services related to power generation technology, solar and wind power generation, energy storage technology services, and carbon reduction technologies [3].

Core Viewpoint - The successful full-capacity grid connection of the 200MW/400MWh energy storage power station in Dehong, Yunnan, represents a strategic hub for China-Myanmar power interconnection and serves as a model for energy cooperation under the Belt and Road Initiative, ensuring regional grid stability and setting a new benchmark for the collaborative development and efficient utilization of clean energy [2]. Group 1 - The project is located in the industrial park of Ruili City, Dehong Prefecture, and involves the provision of 40 sets of 5MW centralized conversion and boosting integrated equipment by the company in collaboration with Nandu Power [3]. - The equipment solution consists of four 1250kW centralized PCS units, with individual rectification and inversion efficiency exceeding 98.5% [4]. - Each unit is equipped with an advanced two-phase flow phase change cooling system, effectively controlling the core cabin temperature rise to below 10K, which reduces subsequent operation and maintenance costs by 30% [5]. Group 2 - The modular design significantly enhances the average fault-free time and overall availability of the system [5].

Core Viewpoint - The forum emphasizes the critical importance of safety in the energy storage industry, highlighting the need for a comprehensive safety evaluation system and collaborative efforts across various sectors to mitigate risks associated with lithium-ion battery storage [7][10][20]. Event Overview - The fifth Energy Storage Safety Forum was held in Tianjin, gathering over 600 participants and attracting more than 40,000 online viewers, marking a significant event for the industry [2][3]. - The forum was co-hosted by several key organizations, including the Zhongguancun Energy Storage Industry Technology Alliance and the Tianjin Fire Research Institute [2][3]. Keynote Addresses - Li Bin, Vice President of Tianjin University, stressed that electrochemical energy storage is essential for the stability of new power systems, but safety incidents have raised systemic risks [7]. - Chen Haisheng, Chairman of the Zhongguancun Energy Storage Industry Technology Alliance, noted that safety is the lifeline for the sustainable development of the energy storage industry, with increasing global safety incidents prompting the need for a robust safety framework [10]. Expert Insights - Academics presented various safety technologies and challenges, including Zhang Laibin's discussion on the advantages and risks of using deep underground spaces for energy storage [12]. - Sun Jinhua proposed a three-tiered safety solution for electrochemical storage, focusing on intrinsic safety, process safety, and fire safety [14]. - Xie Jia highlighted the significant energy contained in storage systems, emphasizing the need for effective thermal runaway prevention strategies [16]. Safety Evaluation Framework - Li Jin from the Tianjin Fire Research Institute introduced a comprehensive safety evaluation system for lithium-ion battery storage, covering all levels from individual cells to entire power stations [20]. - Wang Fang emphasized the necessity of a systematic safety evaluation framework that encompasses all application scenarios and lifecycle stages of energy storage batteries [22]. Industry Guidelines - The forum saw the release of the "Self-Discipline Practice Guidelines" for container lithium battery storage systems, marking a milestone in industry self-regulation [24]. Parallel Forums - Three parallel sub-forums addressed specific topics: safety technology innovations, fault diagnosis and operational safety, and AI empowerment in energy storage safety, fostering in-depth discussions among experts [25][26][27]. Conclusion - The forum underscored the consensus that safety is foundational for the scalable development of the energy storage industry, with a collective commitment to establishing robust safety standards and practices [28].

文 | 中国电力报 截至10月1 5日，国家能源局已对十四届全国人大三次会议建议中关于储能高质量发展的 建议进行一系列答复。答复内容包含 整治储能行业"内卷式"恶性竞争、推动新型储能市 场化发展、支持民营企业创新联合体打造国家级储能高质量发展样板 等方面。现整理相 关内容分享如下： 一是印发《能源碳达峰碳中和标准化提升行动计划》，明确加快完善新型储能技术标 准的重点任务。二是联合国家标准委印发《新型储能标准体系建设指南》，明确了覆 盖基础通用、规划设计、设备试验、施工验收、并网运行、检修监测、运行维护、安 全应急等8个方面的新型储能标准体系，加强标准布局规划。三是加快新型储能电站 向上滑动阅览 对十四届全国人大三次会议第6281号建议的答复摘要 您提出的 关于支持民营企业创新联合体打造国家级储能高质量发展样板的建议 收 悉。经研究并商国家发展改革委、财政部、商务部、税务总局，现答复如下。 在"双碳"目标引领下，我国加快构建清洁低碳安全高效的能源体系，积极发展清洁能 源，推进新型电力系统建设。新型储能作为支撑新能源发展的关键技术，是促进大规 模新能源开发消纳的重要支撑，是实现电力系统安全稳定运行的重要保障，是促 ...

Core Viewpoint - The release of the "Self-Regulatory Practice Guidelines for Container Lithium Battery Energy Storage" marks a significant milestone for the future development of the energy storage industry, aiming to enhance safety and promote sustainable growth [2][5]. Summary by Sections Industry Guidelines - The "Self-Regulatory Practice Guidelines" is the first normative guidance document specifically for container lithium battery energy storage systems, developed by the Zhongguancun Energy Storage Industry Technology Alliance in collaboration with 25 leading enterprises [2][5]. - The guidelines emphasize core principles such as "safety first, risk controllable, green and low carbon, compatibility and interoperability, and quality traceability" for future energy storage system designs [5]. Safety and Performance - The guidelines set baseline requirements for system parameters, key subsystems, and components, addressing industry concerns regarding large-scale fire tests, fire effectiveness assessments, system reliability evaluations, information security, battery thermal management, and maintainability [5]. - Recommendations are provided for the production quality management of energy storage system integration and battery manufacturing [5]. Industry Collaboration - The guidelines will be promoted to energy storage users to become a widely recognized best practice within the industry, contributing to the healthy and sustainable development of the energy storage sector [5]. - The Zhongguancun Energy Storage Industry Technology Alliance will publicly display the guidelines for two weeks, inviting more industry chain enterprises to participate in the development process [5]. Event Support - The fifth Energy Storage Safety Seminar was organized by the Zhongguancun Energy Storage Industry Technology Alliance, with support from various institutions, including the Tianjin Fire Research Institute and Tianjin University [6].

Core Insights - The Gansu mechanism electricity price bidding results were announced, with 61 projects selected, all clearing at a price of 0.1954 yuan per kilowatt-hour [2] - The bidding process included both wind and solar projects, with a total electricity volume of 830 million kilowatt-hours [2] Summary by Category Bidding Results - Gansu adopted a competitive bidding approach for wind and solar projects, resulting in a clearing price of 0.1954 yuan per kilowatt-hour, which is the lower limit for this bidding [2] - The bidding was organized by the State Grid Gansu Electric Power Company in two batches, covering projects that are either already operational or planned for operation between June 1, 2025, and December 31, 2025 [2] Project Breakdown - Wind Power: 8 projects with a mechanism electricity volume of 346.4 million kilowatt-hours and an estimated capacity of approximately 235.6 thousand kilowatts [2] - Centralized Solar Power: 10 projects with a mechanism electricity volume of 482.8 million kilowatt-hours and an estimated capacity of approximately 434.8 thousand kilowatts [2] - Distributed Solar Power: 43 projects with a mechanism electricity volume of 774.6 thousand kilowatt-hours and an estimated capacity of approximately 0.07 thousand kilowatts [2]