Group 1 - The project "In-situ Electrochemical Optical Research of Lithium-ion Batteries for Space Applications" has been initiated aboard the Chinese space station, with astronauts from the Shenzhou 21 mission conducting experiments [2] - Lithium-ion batteries are considered the "energy heart" of modern space missions due to their high energy density, long cycle life, and safety reliability [4] - The research focuses on the distribution of chemical substances within the electrolyte, which is a core factor determining battery power and lifespan [4] Group 2 - The unique microgravity environment of space allows for a clearer study of the internal processes of batteries, such as ion transport and insertion/extraction, which are difficult to isolate on Earth due to the intertwining of gravitational and electric fields [4] - The project aims to observe and analyze the impact of microgravity on key processes within the battery, providing scientific evidence to enhance the efficiency of spacecraft energy systems [5] - The experiment involves in-situ optical observation of lithium-ion batteries under microgravity, capturing the entire growth process of lithium dendrites and ensuring precise execution and monitoring of the experiments [4][5] Group 3 - The advancement of this experiment is expected to break through the cognitive bottleneck of the coupling effects between gravitational and electric fields, further developing electrochemical fundamental theories [5] - The findings will provide a basis for optimizing current on-orbit battery systems and designing the next generation of high-energy, high-safety space batteries [5]

Core Insights - The energy storage industry is entering a critical period of value reshaping driven by technological iteration and market expansion by 2025 [2] - There is a significant structural differentiation and rational regression trend in bidding prices across various dimensions of energy storage systems [3][4] Bidding Price Overview - The average bidding prices for different energy storage systems in 2025 are as follows: - 1h energy storage system: 714.76 CNY/kWh, down 32.89% from 2024 - 2h energy storage system: 553.94 CNY/kWh, down 16.9% from 2024 - 4h energy storage system: 478.69 CNY/kWh, down 26.07% from 2024 - 2h EPC: 1043.82 CNY/kWh, down 13.04% from 2024 [5][10][11] Price Range and Structural Differences - The bidding price range for energy storage systems in 2025 is between 391.14 CNY/kWh and 913.00 CNY/kWh, with significant price differences based on duration [9] - The price drop for 0.25C energy storage systems is nearly double that of 0.5C systems, highlighting the impact of technological cost structures and scale effects [9] Collective Procurement Pricing - Collective procurement prices are approaching cost lines, with average prices for 2h and 4h systems significantly lower than individual project bids, averaging 464.45 CNY/kWh and 421.52 CNY/kWh respectively [14] - The price difference between collective procurement and individual project bids is around 12%-15% [14] Network-type Energy Storage Systems - The bidding prices for network-type energy storage systems show a trend of initial decline followed by stabilization, with 2h and 4h systems averaging 597.70 CNY/kWh and 622.90 CNY/kWh respectively [16] - The average bidding price for 2h network-type systems decreased by 3.06% compared to 2024, while 4h systems saw a decline of 24.98% [16] EPC Bidding Prices - The bidding prices for energy storage EPC projects vary significantly, ranging from 449.20 CNY/kWh to 2082.70 CNY/kWh, influenced by duration, technical requirements, and other factors [18] - The average bidding price for 1h EPC projects is 1280.15 CNY/kWh, down 55.91% from 2024, while 2h and 4h EPC projects average 1043.82 CNY/kWh and 935.40 CNY/kWh, down 13.04% and 8.19% respectively [19][20]

Core Viewpoint - The article emphasizes the critical importance of power supply safety in coal mining, particularly in complex environments like Guizhou, where geological conditions pose significant challenges [2][3]. Group 1: Industry Challenges - Guizhou's coal mines face heightened risks due to complex geological conditions, high gas content, and the potential for external power grid failures, which can severely impact essential systems like ventilation and drainage [3]. - The need for reliable emergency responses in such environments is paramount, as any power outage can exacerbate safety risks [3]. Group 2: Project Implementation - A 2.5MW/3.343MWh emergency power storage project was successfully implemented in a Guizhou coal mine, developed in collaboration with Suzhou Inovance Technology Co., serving as a benchmark for energy storage applications in coal mining [4]. - The project utilizes an advanced liquid cooling energy storage system designed to operate reliably in harsh conditions, ensuring stable performance under high temperature, humidity, and dust [5]. Group 3: Safety and Efficiency - The project features a product design and EMS control strategy tailored to coal mine safety standards, enabling rapid switching to emergency mode during power grid failures, thus maintaining power supply to critical loads [7]. - This approach effectively mitigates safety risks associated with power outages, ensuring continuous operation of essential systems [7]. Group 4: Economic Benefits - The Guizhou Provincial Energy Bureau announced funding incentives for coal mines that establish emergency energy storage systems, aiming to enhance power supply reliability and reduce gas exceedance risks [8]. - The energy storage project not only ensures safety but also allows clients to leverage peak and off-peak electricity pricing, creating significant economic benefits through market operations [8]. Group 5: Future Directions - The company plans to deepen its "Energy Storage + X" strategy, focusing on technological innovation to build a safer, more efficient, and intelligent energy ecosystem [10]. - The company will participate in the 14th International Energy Storage Summit and Exhibition in 2026, highlighting its commitment to exploring future opportunities in the energy storage sector [10].

Core Insights - In January 2026, 20 regions implemented peak electricity prices, while 3 regions adopted valley electricity prices. A total of 21 regions exhibited a peak-valley price difference exceeding 0.6 yuan/kWh, and 16 regions had a peak-to-flat price difference greater than 0.3 yuan/kWh [3][4] - The top three regions with the largest peak-valley price differences are: Guangdong Pearl River Delta (1.1577 yuan/kWh), Jiangmen (1.1510 yuan/kWh), and Hainan (1.1171 yuan/kWh) [3][4] - Year-on-year changes in the maximum price difference for January 2026 show increases in only 7 provinces, while the remaining provinces experienced declines. Notably, Xinjiang saw a decrease of 93.4%, Ningxia 57.4%, and Liaoning 48.3% [3][4] Price Differences - The maximum peak-valley price difference in January 2026 is as follows: - Guangdong Pearl River Delta: 1.1577 yuan/kWh, down 11.9% year-on-year - Jiangmen: 1.1510 yuan/kWh, down 12.0% year-on-year - Hainan: 1.1171 yuan/kWh, with other regions like Huizhou, Hunan, and Shandong also showing significant differences [3][5] - The year-on-year decline in maximum price differences is particularly pronounced in provinces with ample supply, such as Xinjiang, Ningxia, and Liaoning, while Jiangsu's decline is attributed to adjustments in time-of-use pricing [3][5] Time-of-Use Pricing Policies - Hebei, Shandong, and Shanxi updated their time-of-use pricing policies in January 2026, with specific floating ratios for peak and valley pricing [6][8][9] - The floating ratios for peak and valley prices are set at 70% above and below the flat price, respectively, with peak prices increasing by 20% and valley prices decreasing by 20% [7][8][9] Impact on Energy Storage - Changes in time-of-use pricing policies significantly affect the profitability of user-side energy storage. The CNESA will continue to monitor electricity price trends, with detailed analyses available in the CNESA DataLink global energy storage database [12]

Core Insights - By the end of 2025, Xinjiang's new energy storage capacity is expected to reach 20.1504 GW / 70.5376 GWh, marking a significant milestone in supporting efficient renewable energy consumption and ensuring grid stability in China [2] - The total installed capacity of Xinjiang's power grid has exceeded 250 GW, with renewable energy capacity reaching 161 GW, indicating a continuous increase in the share of clean energy [2] Group 1 - By the end of 2025, the annual cumulative charging electricity of Xinjiang's new energy storage is projected to be 9.1 billion kWh, with a discharge capacity of 7.7 billion kWh, achieving an equivalent utilization hours of 1733 hours [4] - The storage facilities play a crucial role in smoothing out fluctuations in wind and solar power generation, significantly enhancing the capacity for renewable energy consumption [4] Group 2 - Xinjiang's new energy storage technology has diversified, with large-scale applications of lithium iron phosphate storage and demonstrations of new technologies such as vanadium flow and flywheel storage [5] - The State Grid Xinjiang Electric Power Company plans to optimize the energy storage grid connection service mechanism and promote the demonstration application of new energy storage technologies [5]

Group 1 - Jinko Energy and Shaanxi Yihe Green Energy have signed a framework cooperation agreement to develop energy storage projects with a target scale of 3GWh over the next two years [2] - Jinko Storage will provide its next-generation Blue Whale SunTera G3 6.25MWh battery storage system, which features a 95% system cycle efficiency and a lifespan of up to 10,000 cycles, ensuring long-term economic viability [4] - The system incorporates intelligent liquid cooling technology and non-uniform flow channel design, achieving precise temperature control with a temperature difference of ≤2°C between cells, enhancing operational safety and lifespan [4] Group 2 - Jinko Storage will participate in the 14th International Energy Storage Summit and Exhibition (ESIE 2026) scheduled for March 31 to April 3, 2026, in Beijing [5][6] - The event is positioned as a barometer for the development of the energy storage industry in China [5]

文 | 采日能源 近日，由中核集团投资建设的 嘉峪关独立储能项目 成功完成调试并实现并网。 作为储能系统的核心供应商， 采日能源为该电站提供了自主研发的高性能磷酸铁锂储能电池系统 ，以安全、高效、长寿命的储能解决方案，助 力项目顺利投运 ，为西北地区电网调峰、新能源消纳与新型电力系统建设提供了关键技术支撑。 该项目位于嘉峪关市西端， 总投资约12亿元 ，占地面积约162亩，规模达 500MW/1000MWh ，单次可储电100万千瓦时，每小时充放电50 万千瓦时，通过一回330kV线路接入嘉峪关市嘉西光伏产业园索通百万光伏汇集站，实现与电网的灵活互动与高效融合。 项目核心 采用 "超级电容+规模化储能"创新技术路线 ，超级电容器件具备毫秒级响应、10万次以上循环寿命及-40°C至60°C宽温域适应能力 ，有效平抑新能源发电波动，提升电网调峰调频水平。 作为甘肃省 "十四五"新型储能试点示范项目 ，嘉峪关独立储能电站的建成投运，将有效提升电力系统供电可靠性与电网调节能力，显著改善新 能源发电并网质量。 其中， 采日能源自主研发的储能电池系统，凭借其优异的循环性能、可靠的系统安全设计和高效的智能温控管理，在项目中 ...

Core Viewpoint - The article outlines the list of key provincial engineering projects in Shanxi for 2026, emphasizing the focus on energy transition and sustainable development through various projects in renewable energy and advanced energy technologies [2]. Energy Transition Projects - A total of 629 major engineering projects are included in the list, with 174 projects specifically related to energy transition [2][3]. - The largest category within energy transition projects is flexible energy storage and regulation, comprising 38 projects [2][3]. - Other categories include wind and solar power (19 projects), advanced coal power (9 projects), green electricity parks (15 projects), and modern coal chemical projects (12 projects) [3][12]. Flexible Energy Storage Projects - The 38 flexible energy storage projects include various types such as pumped storage, new energy storage, battery swap stations, and ultra-high voltage projects [2][4]. - Key locations for new energy storage projects are distributed across cities including Datong, Xinzhou, Jinzhong, Yangquan, Changzhi, Jincheng, Linfen, Yuncheng, and Lüliang [2][4][5]. Green Electricity Parks - There are 15 projects dedicated to the establishment of green electricity parks, aimed at integrating renewable energy sources into local industries [6][7]. - Notable projects include the integrated green electricity direct connection pilot project in Yangquan and the green electricity park construction in various cities [6][7]. Coal Supply and Storage Projects - The list includes 22 projects focused on coal production, supply, storage, and sales, highlighting the ongoing importance of coal in the region's energy landscape [6][8]. - Projects aim to enhance the efficiency and sustainability of coal operations across Shanxi [6][8]. Advanced Energy Equipment - There are 24 projects related to advanced energy equipment, which are crucial for supporting the energy transition and improving energy efficiency [6][18]. - These projects include the production of high-performance materials for energy applications and the development of smart energy technologies [6][18]. Non-Conventional Natural Gas Projects - The list features 12 projects aimed at increasing the production and storage of non-conventional natural gas, reflecting a shift towards diversifying energy sources [6][17]. - These projects are essential for enhancing energy security and reducing reliance on traditional fossil fuels [6][17].

Core Viewpoint - Beijing aims to enhance its pilot testing service capabilities to promote the integration of technological innovation and industrial development, with a goal of establishing a comprehensive pilot testing system by 2030 [2][8]. Group 1: Policy Measures - The document outlines 14 policy measures to support the construction and efficient operation of pilot testing platforms, with a focus on key industries such as artificial intelligence, healthcare, and green technology [3][9]. - New pilot testing platforms can receive subsidies of up to 100 million yuan, covering 35% of total investment for leading industries and 25% for emerging technology sectors, with specific caps for different categories [3][9]. Group 2: Development Goals - By 2030, Beijing aims to establish 10 national-level and 50 municipal-level pilot testing platforms to meet the needs of a modern industrial system [2][8]. - The initiative emphasizes the importance of pilot testing as a transitional phase for new products, facilitating the commercialization of technological achievements [8]. Group 3: Support for Enterprises - The policies encourage collaboration among leading enterprises and research institutions to build pilot production lines, enhancing the overall testing capabilities within the industry [9][10]. - Financial support mechanisms, including tax deductions and streamlined project approvals, are introduced to facilitate the rapid establishment and operation of pilot testing projects [10][12]. Group 4: Service Ecosystem Enhancement - The document emphasizes the need for a collaborative approach in building pilot testing bases across the Beijing-Tianjin-Hebei region, focusing on key sectors like hydrogen energy and biomedicine [11]. - A platform for matching supply and demand for pilot testing services will be developed to enhance resource allocation and support industrial innovation [11][12]. Group 5: Talent and Standards Development - The initiative includes plans to strengthen the talent pool for pilot testing by fostering partnerships between universities and industry, aiming to cultivate skilled professionals [12]. - Support for the establishment of standards related to pilot testing services is also highlighted, encouraging participation from various stakeholders in the development of national and international standards [12].

日本根本特殊化学株式会社创⽴于194 1年 ，NEMOTO ⽓体传感器业务始于 1978 年，以电离式烟雾传感器的研发开启发展征程。自 1 941 年成⽴以来，公司深耕安全、安保与健康领域，以持续创新的技术为社会发展贡献⼒量。 业务介绍 核心产品涵盖 NEMOTO 气体传感器、湿度传感器、烟尘泄漏检测器及发光防伪材料。历经数⼗年技术沉淀，如今公司打造的催化燃烧 式、电化学式两⼤核⼼系列⽓体传感器，已⼴泛应⽤于电池储能、隧道、供⽔设施、停⻋场、建筑物、⼯⼚等多元场景，更成功进驻国 际空间站，彰显卓越品质与技术实⼒。 近日， 根本特殊化学株式会社 完成入会流程，正式成为中关村储能产业技术联盟会员单位。 公司简介 文 | 中关村储能产业技术联盟 深耕储能领域，针对氢⽓检测核⼼需求， NEM OTO 创 新推出 接触燃烧式氢⽓传感器 NA P - 90 H 。该产品兼具 优异 的反应速度与 ⻓期稳定性 ， 检测范围覆盖 1p p m ⾄ 100 v ol % ，可全⾯匹配 BE S S（电池储能系统） 的氢⽓监测 需求。 | 필号 | NAP-90H | | --- | --- | | 检测原理 | 接触燃烧式 | ...