"储能产业正经历一场深刻的材料革命，技术路线从锂电独秀迈向百花齐放，尤其是长时储能已成为新 型电力系统建设刚需。"在为期三天的SNEC2025国际储能大会上，多位业内高管与专家表示，当前储能 产业正通过技术路线多元化、市场机制完善、多能协同融合等维度，破解长时储能不足、存在安全风 险、全球化程度低等痛点。随着储能与氢能发展窗口期开启，行业将实现从拼价格向拼价值的转变，装 机规模有望大幅增长，从电力系统可选配角升级为核心枢纽，撑起万亿级赛道。 破解长时储能痛点 在新能源占比持续提升、新型电力系统加速建设的背景下，储能产业正告别价格战与技术单一的困境， 迎来关键转型期。 天能控股集团董事长张天任表示，"十五五"期间储能技术将告别单一化，进入"成熟分化、场景融合"的 新阶段。尽管锂电池因建设周期短、部署灵活等优势仍将主导中短期内市场，但铅电池在数据中心、分 布式电源等场景的性价比优势持续凸显，液流电池、空气电池、压缩空气储能等技术在长时储能领域将 加速突破。 针对储能产业目前的内卷问题，尹松建议要进一步强化政策引导、市场引领与技术支持协同发力。同 时，深化国际合作，主动跳出内卷思维，把规模效应转化为政策优势，推动构 ...

Core Insights - The energy storage industry is undergoing a significant material revolution, transitioning from a lithium-dominated landscape to a diversified technological approach, particularly in long-duration energy storage, which is becoming essential for new power system construction [1][2] Group 1: Challenges and Transformations - The energy storage sector is moving away from price wars and technological uniformity, entering a critical transformation phase due to the increasing share of renewable energy and the accelerated construction of new power systems [2] - The core challenge facing the industry is the insufficient duration of energy storage, with a call for long-duration storage as renewable energy generation exceeds 20% of total installed capacity [2][3] - Achieving 6-hour energy storage could effectively alleviate current issues related to renewable energy consumption and grid peak regulation [2] Group 2: Material Innovations - Breakthroughs in long-duration energy storage hinge on material innovations, balancing technical, economic, and safety aspects to enhance storage performance and reduce costs [3] - New methods for producing cathode materials, such as the GCL-PHY method, are emerging, which significantly lower costs and energy consumption while reducing dependency on chemical parks [3] Group 3: Industry Dynamics and Market Mechanisms - The industry consensus acknowledges that low-price competition has led to thin profit margins, hindering technological innovation [4] - The establishment of capacity pricing mechanisms and auxiliary service markets is expected to shift the focus from price competition to value competition, fostering new productive forces [4] - The current wave of homogenized competition in the energy storage sector is exacerbated by project planning, pricing policies, and technical limitations, which prolong investment recovery periods [4] Group 4: Multi-Energy Integration - The core value of energy storage lies in supplementing renewable energy, addressing intermittency issues of wind and solar power, and enhancing capacity support and auxiliary service capabilities [6] - Predictions indicate that by 2030, the installed capacity of energy storage could see nearly a tenfold increase, with the hydrogen industry also entering a phase of explosive growth [6] - The future of the energy storage industry is seen as a multi-trillion-dollar opportunity, emphasizing the need for a collaborative ecosystem that integrates various technologies to meet diverse demands [6]

"储能产业正经历一场深刻的材料革命，技术路线从锂电独秀迈向百花齐放，尤其是长时储能已成为新 型电力系统建设刚需。"在为期三天的SNEC 2025国际储能大会上，多位业内高管与专家表示，当前储 能产业正通过技术路线多元化、市场机制完善、多能协同融合等维度，破解长时储能不足、存在安全风 险、全球化程度低等痛点。随着储能与氢能发展窗口期开启，行业将实现从拼价格向拼价值的转变，装 机规模有望大幅增长，从电力系统可选配角升级为核心枢纽，撑起万亿级赛道。 ● 本报记者 刘杨 破解长时储能痛点 在新能源占比持续提升、新型电力系统加速建设的背景下，储能产业正告别价格战与技术单一的困境， 迎来关键转型期。 天能控股集团董事长张天任表示，"十五五"期间储能技术将告别单一化，进入"成熟分化、场景融合"的 新阶段。尽管锂电池因建设周期短、部署灵活等优势仍将主导中短期内市场，但铅电池在数据中心、分 布式电源等场景的性价比优势持续凸显，液流电池、空气电池、压缩空气储能等技术在长时储能领域将 加速突破。 储能行业当前面临的核心挑战正是储能时长不足。"新型电力系统呼唤长时储能。"协鑫集团董事长朱共 山表示，当发电侧新能源总装机占比超过20% ...

今天分享的是：2025年新形势下新型储能发展趋势分析报告 报告共计：31页 2025年新型储能发展趋势：政策换挡、技术多元，助力能源转型加速 在全球能源转型浪潮下，我国新型储能产业正迎来关键发展期。2025年以来，一系列政策调整、技术突破与市场变化，共同勾勒出新型储能产业的全新发展 图景。从政策层面的"松绑"与引导，到技术路线的多元化探索，再到市场需求的持续释放，新型储能正从"辅助配角"逐步成长为新型电力系统建设的核心支 撑力量。 政策环境的优化是推动新型储能产业转型的重要引擎。2025年出台的136号文明确取消新能源"强制配储"要求，这一调整并非削弱储能发展，而是推动产业 从行政指令驱动转向市场化驱动。政策同时强调，通过虚拟电厂、构网型技术等创新模式促进新能源消纳，为新型储能开辟了更灵活的发展空间。与此同 时，394号文提出2025年底前基本实现电力现货市场全覆盖，山西、广东、山东等省份已率先进入正式运行阶段，现货市场的完善让储能的调峰、调频、备 用等辅助服务价值得以更充分体现。 在电价机制方面，行业正逐步告别"补贴依赖"，走向多元化的成本疏导路径。当前多数地区已形成以容量租赁为主的商业模式，而容量电价机制 ...

Core Viewpoint - The article discusses the "Guiding Opinions on Promoting High-Quality Development of Energy Equipment" issued by several Chinese government agencies, aiming for significant advancements in the energy equipment industry by 2030, focusing on self-sufficiency, high-end, intelligent, and green development [2][3]. Group 1: Energy Equipment Development Goals - The goal is to achieve a self-controlled, high-end, intelligent, and green development of the energy key equipment industry chain and supply chain by 2030, with a globally leading technology and industrial system [2]. - The initiative supports the construction of a new energy system, ensuring efficient and intelligent energy exploration, low-carbon energy conversion, reliable energy storage, and stable energy transmission [2]. Group 2: Specific Directions for Development - Establish a high-safety, high-reliability battery storage equipment system, focusing on long-life, wide-temperature, low-degradation lithium batteries, sodium batteries, and solid-state batteries [3]. - Accelerate breakthroughs in high-reliability, long-life, and high-efficiency electrolysis water hydrogen production equipment, and develop large-diameter hydrogen-resistant steel pipeline materials [3][4]. - Enhance energy conversion equipment quality, focusing on coal, gas, and nuclear energy equipment upgrades, while improving renewable energy equipment efficiency [5][6]. Group 3: Energy Storage and Hydrogen Equipment - Develop large-capacity, high-parameter, long-life, and high-safety energy storage equipment, including lithium, sodium, and flow batteries [9][10]. - Focus on breakthroughs in hydrogen production equipment, including high-efficiency electrolysis and large-scale off-grid hydrogen production technology [10]. Group 4: Energy Transmission and Digitalization - Promote the development of key equipment for the transmission of electricity, coal, oil, and natural gas, enhancing the efficiency and stability of energy transmission networks [11][12]. - Emphasize the digital and intelligent upgrade of energy equipment, focusing on autonomous industrial control systems and intelligent operation and maintenance technologies [13][14]. Group 5: Green Development and Recycling - Advance the development of green circular materials and repair technologies, establishing a lifecycle management system for energy equipment [14]. - Encourage the recycling of renewable energy equipment and the establishment of a battery recycling system to enhance sustainability [14].

Core Viewpoint - The importance of new energy storage and new power systems is increasing in the context of global energy green and low-carbon transformation, with Chinese energy storage companies exploring "indirect overseas expansion" strategies to navigate international challenges and enhance their global presence [1][3]. Group 1: Industry Trends - The global installed capacity of energy storage is expected to reach approximately 270 GW by 2026, making overseas markets a critical battleground for China's new energy storage industry [3]. - The Guangdong province has established a comprehensive energy storage industry chain covering battery materials, energy storage cells, inverters, system integration, and recycling, with significant investments and project developments underway [7]. - The new energy storage industry in Guangdong has seen a total investment exceeding 340 billion yuan, with an expected annual output value of over 700 billion yuan upon reaching full production [7]. Group 2: Strategic Approaches - Companies are adopting "indirect overseas expansion" by providing key materials and core components to downstream system customers, leveraging their channels and networks for efficient market entry [1][4]. - A total of 22 new energy storage ecosystem companies, including Huawei and Southern Power Grid, signed agreements to explore innovative models for industry expansion and zero-carbon development, focusing on advanced technologies like solid-state batteries and sodium-ion batteries [2][4]. - The establishment of industry alliances is enabling companies to transform single-point technological breakthroughs into comprehensive engineering capabilities and market supply strength for global expansion [4][6]. Group 3: Policy and Support - The Guangdong government has introduced a "1+N+N" policy package to support the new energy storage industry, covering aspects such as industrial planning, technological innovation, and financial support [8]. - The Guangdong New Energy Storage Industry Investment Fund has been established with an initial scale of 5 billion yuan, focusing on investments in semi-solid/solid-state batteries, sodium-ion technology, hydrogen storage, and high-end equipment manufacturing [8]. - The establishment of the National New Energy Storage Innovation Center aims to promote technological breakthroughs and industry collaboration, creating a comprehensive innovation platform for the energy storage sector [6].

膨胀土是一种在我国26个省区市都有分布的特殊土质。它失水时会迅速收缩开裂，吸水时又会急剧膨胀 变形，时常导致道路路基和边坡发生垮塌、滑坡等地质灾害问题，造成高额经济损失。 日前，来自长沙理工大学、复旦大学和南京理工大学的科研团队利用膨胀土及膨润土（与膨胀土性质相 同的黏土，蒙脱石含量更高）等遇水膨胀原料，成功研制出了高性能液流电池关键材料——具有离子精 准筛分功能的共膨胀复合离子交换膜。 通过创新性提出的"纳米闸门"离子筛分机制，研究团队在交换膜中构建了仅头发丝万分之一粗细的"智 能闸门"，从而精准调控液流电池的离子传输通道尺寸和电荷环境，实现离子高效选择性传导，为解决 液流电池长期存在的隔膜溶胀难题提供了全新解决方案。实验结果显示，这类改性膜性能大幅高于现有 商用膜。相关研究成果近期发表于国际期刊《先进能源材料》。 丁美解释，液流电池中的隔膜在工作时浸润在溶液中，吸水会发生膨胀，导致原有的离子传输通道因膨 胀而变大，离子选择性降低，从而使得电解液中的电化学活性物质容易穿过离子传输通道，造成正负极 活性物质交叉污染，自放电现象加剧，降低液流电池的效率、容量和循环寿命等性能。 膨胀土及膨润土等遇水膨胀原料的特性 ...

Group 1 - The conference focused on key technological breakthroughs, industry chain collaborative innovation, and ecological co-construction in the new energy storage and new power system sectors [1] - The new power system is seen as a crucial hub for optimizing the new energy system, with new energy storage being a key technology for promoting global energy transition [1] - Guangdong province is enhancing its energy storage capabilities across the entire industry chain while promoting standardization and internationalization [1] Group 2 - A new generation of all-scenario energy storage battery technology was launched, addressing the diverse needs of global energy storage applications through collaborative ecological chain models [2] - 22 new energy storage ecosystem enterprises signed agreements to explore innovative models for industry expansion and zero-carbon development, covering advanced technologies like solid-state batteries and sodium-ion batteries [2] - The new power system is characterized by a high proportion of renewable energy and power electronic equipment, necessitating improvements in grid support capabilities and resilience [2] Group 3 - The "New Power System Cooperation Initiative" was launched to address technical and operational challenges faced by Chinese and overseas power grids, aiming to establish efficient international cooperation mechanisms [3] - A new generation of carrier communication industry alliance was formed, with 16 member representatives committed to leading the energy storage industry from technology leadership to ecological leadership and expanding into global markets [3]

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].

Core Viewpoint - The National Energy Administration and four other departments have issued guidelines to promote the high-quality development of energy equipment, focusing on advanced battery storage systems and various energy storage technologies [1] Group 1: Battery Storage Equipment - Establish a high safety and high reliability battery storage equipment system [1] - Develop long-life, wide temperature range, and low decay lithium batteries, sodium batteries, and solid-state batteries [1] - Construct low-cost, long-duration vanadium-based, iron-based, and organic flow battery equipment systems [1] Group 2: Safety and Monitoring Technologies - Breakthroughs in battery management system safety monitoring, hazard warning, and proactive protection technologies are emphasized [1] - Enhance the intrinsic safety performance of energy storage batteries [1] Group 3: Physical Energy Storage Technologies - Develop large-capacity, low-cost physical energy storage technologies, including high-head pumped storage units and large-capacity variable-speed units [1] - Research key equipment such as high-power, high-parameter compressors and expanders [1] Group 4: Thermal Energy Storage Technologies - Develop low-cost, high-efficiency, and long-life thermal storage key technology equipment [1] Group 5: Short-term Energy Storage Equipment - Research high-efficiency flywheel energy storage and high specific energy long-life supercapacitors for short-term high-frequency energy storage [1] - Promote engineering validation of these technologies [1] Group 6: Networked Energy Storage Technologies - Encourage the development of networked energy storage technology [1] - Create adaptive networked energy storage systems and equipment for multiple scenarios and operating conditions [1]