中新网乌鲁木齐11月17日电 (苟继鹏)11月17日，新疆科技创新大会在乌鲁木齐市举行，对获得2024年度 新疆科学技术突出贡献奖的5位科学家、149项新疆科学技术奖获奖成果进行表彰。 （文章来源：中国新闻网） 会上，干旱区生态安全与可持续发展全国重点实验室、新疆能源化工实验室、丝路水实验室、昆仑智能 装备实验室、新疆天山科技创新院等五个创新平台正式揭牌亮相。为新疆生态保护、水资源管理、智能 装备研发、能源化工、科创生态培育等领域搭建创新载体。 其中，新疆能源化工实验室将围绕新疆能源领域的"多能融合、低碳发展"核心需求，开展能源化工领域 关键核心技术攻关，聚焦多能融合、低碳煤化工、含氧化合物、产品精细化高值化、与能源化工相关的 其他方向等技术，充分发挥新疆丰富的能源资源和产业基础，打造国际一流的能源化工领域科技创新和 成果转化平台。 水资源对于新疆经济社会发展至关重要。此次揭牌的丝路水实验室将立足新疆，面向中亚，打造集基础 研究、技术研发、成果转化和决策服务于一体的综合性创新平台。 新疆科技厅相关负责人表示，这些平台的建设意义深远，将为新疆进一步集聚高端科研人才，打通产学 研融合堵点，加速科技成果落地。近年来 ...

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 systems [1][2] - The industry is moving away from price wars and single technology reliance, entering a critical transformation phase characterized by technological diversification, improved market mechanisms, and multi-energy collaboration [2][4] Energy Storage Challenges - The primary challenge facing the energy storage sector is the insufficient duration of storage, which is crucial as renewable energy generation increases [2][3] - As renewable energy capacity exceeds 20%, a minimum of 4 hours of storage becomes necessary, and over 50% requires at least 10 hours of long-duration storage to address issues like renewable energy consumption and grid peak regulation [2] Material Innovations - Breakthroughs in materials are essential for enhancing energy storage performance and reducing costs, with innovations in positive and negative electrode materials being highlighted [3] - New methods such as the GCL-PHY process for preparing positive materials and the transition from traditional materials to silicon-carbon composites for negative materials are being developed [3] Industry Dynamics - The energy storage sector is shifting from price competition to value competition, driven by the integration of source, grid, load, and storage [4] - The current market dynamics are characterized by homogenization and prolonged investment recovery periods, necessitating stronger policy guidance and international cooperation to foster high-quality development [4] Multi-Energy Integration - The core value of energy storage lies in supporting renewable energy by addressing intermittency issues, thus enhancing its capacity and auxiliary service capabilities [5] - The industry is expected to see nearly a tenfold increase in installed storage capacity by 2030, with hydrogen energy also entering a phase of explosive growth [6] Future Outlook - The period of the 14th Five-Year Plan is anticipated to be a critical window for the development of energy storage and hydrogen energy, with a fundamental shift in the driving logic of these industries [6] - The future of energy storage will focus on building a multi-energy integrated ecosystem, accommodating diverse technological routes to meet complex demands [6]

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]

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 systems [1][2] - The industry is moving away from price wars and single technology reliance, entering a critical transformation phase driven by technological diversification, improved market mechanisms, and multi-energy collaboration [1][2] Long-Duration Energy Storage Challenges - The primary challenge facing the energy storage sector is insufficient storage duration, with a need for over 4 hours of storage when renewable energy generation exceeds 20% of total capacity, and over 10 hours when it surpasses 50% [2] - Breakthroughs in long-duration storage hinge on material innovations, balancing technical, economic, and safety aspects to enhance performance and reduce costs [2] Industry Internal Competition - Low-price competition has led to thin profit margins and stifled technological innovation, prompting a shift from price competition to value competition as market mechanisms mature [3] - Recommendations include strengthening policy guidance, market leadership, and technical support, alongside fostering international cooperation to escape the cycle of internal competition [3] Multi-Energy Integration - The core value of energy storage lies in supporting renewable energy by addressing intermittency issues, transitioning from merely providing energy to offering capacity support and ancillary services [3] - The integration of energy storage with hydrogen energy is accelerating, driven by the dual carbon goals and the need for a new power system [3][4] Future Growth Projections - The installed capacity of energy storage is expected to grow nearly tenfold by 2030, with the hydrogen industry also entering a phase of explosive growth [4] - The development of energy storage and hydrogen industries is entering a critical window, with a shift from isolated technology views to a collaborative, multi-energy ecosystem approach [4][5] Application and Infrastructure - Energy storage systems are becoming foundational to computational infrastructure, with predictions that by 2030, 95% of computational power will be inference-based, necessitating enhanced real-time balancing capabilities in the grid [5] - Companies are exploring integrated platforms for wind, solar, and storage solutions, particularly in regions like the Middle East, to capitalize on investment opportunities in the energy storage sector [5]

Core Insights - The SNEC ES+ 11th International Energy Storage and Battery Technology Conference highlighted rapid growth and diverse applications in the energy storage industry, with a projected compound annual growth rate (CAGR) of 30% to 40% for new energy storage installations over the next five years [1][6][8] Industry Trends - The energy storage system is becoming a core infrastructure for computing power, with a significant demand for real-time balance capabilities in the power grid due to the increasing reliance on inference computing power [4][6] - By 2030, it is estimated that 95% of computing power will be inference-based, necessitating substantial energy storage solutions to support large-scale model training [4][6] Market Dynamics - The energy transition in China is entering a critical phase, with wind and solar power installations expected to reach six times the 2020 levels by 2035, indicating a robust demand for energy storage solutions [6][7] - The energy storage and hydrogen sectors are anticipated to experience significant growth, with projections suggesting a nearly tenfold increase in storage capacity by 2030 [7][8] Technological Innovations - The development of new battery materials is crucial for the advancement of energy storage, with companies like GCL focusing on innovative production methods that reduce costs and energy consumption by 50% [5][6] - The integration of various technologies, such as lithium, sodium, and hydrogen, is essential for addressing the complex demands of diverse energy scenarios [8] Investment Outlook - The global energy storage market is projected to exceed 500 GW by 2030, with an estimated total investment of $600 billion, highlighting the sector's potential as a significant investment opportunity [8]

Core Insights - The global new energy storage installed capacity is expected to grow at a compound annual growth rate (CAGR) of 30% to 40% over the next five years, with significant implications for the energy sector [2][8] - Energy storage systems are becoming a core infrastructure for computing power, indicating a shift in their role within the energy ecosystem [3][6] - The integration of energy storage with hydrogen energy is seen as a critical opportunity for the industry, with projections of nearly tenfold growth in storage capacity by 2030 [7][8] Industry Trends - The storage industry is transitioning from being a supplementary component to a core asset in the new power system, emphasizing its economic importance [3][4] - The demand for energy storage is closely linked to the growth of renewable energy installations, with a proposed formula indicating a need for 1.2 GWh of storage capacity for every 1 GW of new renewable capacity [3][6] - The upcoming "14th Five-Year Plan" period is identified as a key window for the development of energy storage and hydrogen energy, with a shift from pilot projects to essential market applications [7][8] Technological Developments - Material breakthroughs are crucial for the advancement of new energy storage technologies, with companies like GCL focusing on innovative battery materials that reduce costs and energy consumption by 50% [4][5] - The development of multi-energy fusion ecosystems is highlighted as a future trend, with companies pursuing diverse technological pathways to meet complex energy demands [7][8] - The collaboration among various technologies, such as lithium, sodium, and hydrogen, is essential for addressing the diverse requirements of the energy landscape [7]

Core Viewpoint - The article emphasizes the need for Yulin to leverage its unique resource advantages to achieve multi-energy integration and extend the industrial chain, particularly in the fine chemical industry, to build a distinctive energy strategic system [2][3]. Industry Development - Yulin is recognized as a national-level energy and chemical base, being a significant production hub for methanol, coal-to-olefins, and polyvinyl chloride, with leading production capacities [2]. - The region has established a modern coal chemical industry system comprising four trillion-level and eight hundred-billion-level projects, supported by fine chemical initiatives [2]. Resource Utilization - Yulin possesses a comprehensive resource base, including coal, oil, gas, and salt, which should be utilized to promote the coupling of coal chemical and traditional petrochemical industries, as well as the integration of renewable and fossil energy [3]. - The collaboration between Dalian Institute of Chemical Physics and China Shenhua Coal to Oil Chemical Co. has led to the development of a new technology for producing 1,2-dichloroethane from ethylene glycol and methane chlorides, addressing high energy consumption and emissions issues associated with traditional methods [3]. Environmental Impact - The introduction of green hydrogen in coal-to-olefins processes can replace traditional water-gas shift reactions, reducing CO2 emissions by 70% [4]. - The oxygen produced from water electrolysis can be utilized in coal gasification processes, contributing to a zero-carbon or even negative carbon footprint for coal chemical production [4]. Innovation and Collaboration - The establishment of a deep integration platform for production, education, research, and application in fine chemicals is recommended to focus on high-end fine chemical products and functional materials [4].

Core Viewpoint - The integration of the petrochemical industry with new energy and artificial intelligence is essential for the transformation and upgrading of Henan's petrochemical sector, addressing its current structural issues and high energy dependence [2][3]. Industry Development - Henan Province has established a distinctive salt chemical industry cluster, transitioning from traditional products like soda ash and caustic soda to high-end new materials such as polycarbonate and epoxy resin [2]. - The province has formed 47 differentiated chemical industry clusters, showcasing regional characteristics [2]. Challenges - The petrochemical industry in Henan faces challenges such as a relatively short industrial chain, severe product homogeneity, and high external dependence on coal and oil resources, with coal dependence at approximately 50% and oil and gas resource dependence exceeding 90% [2][3]. Strategic Recommendations - To achieve a high-end green transformation, the industry should focus on four key areas: high-value conversion of carbon-based energy, green production process innovation, high-end transformation of new materials, and intelligent digital transformation [3]. - Suggested strategies include the integration of renewable energy with petrochemicals, low-carbon transformative processes, and the development of high-end new materials from coal-based oxygen-containing compounds [3]. Event Overview - The 2025 Central China (Zhengzhou) Chemical Technology Equipment and New Materials Exhibition aims to promote high-quality development in the chemical industry, featuring 16 sectors including new chemical materials, advanced nylon materials, electronic chemicals, and smart chemical equipment [3]. - The event is organized by the Henan Petroleum and Chemical Industry Association and the Henan Chemical Pharmaceutical Safety Production Association, emphasizing the chemical industry's role as a core engine for economic development in Central China and its importance in achieving carbon neutrality goals [3]. Collaborative Initiatives - The release of the "Mountain River Four Provinces Chemical Industry Chain Collaborative Development White Paper" outlines a strategic path to build a trillion-level chemical industry cluster [4].