优化能源骨干通道布局，加力建设新型能源基础设施。 ——摘自"十五五"规划建议 谷山梁3吉瓦/12.8吉瓦时储能电站项目建成后，每年预计可向电网输送36亿千瓦时的清洁能源电力。这 些电将送往哪些地方？ 王宁介绍，项目建成后，将接入谷山梁500千伏变电站并入电网，优先保障鄂尔多斯及内蒙古西部工业 与居民用电，还将外送至华北等地区，助力能源结构优化。 目前，鄂尔多斯市已建成储能电站项目23个、在建12个、拟建17个。同在库布其沙漠，杭锦旗谷山梁明 阳智能100兆瓦/400兆瓦时电网侧储能电站示范项目预计在今年11月末投用。 沙漠里建起一个个巨型"充电宝"，既靠市场驱动，也离不开政策引导。内蒙古自治区能源局印发《关于 加快新型储能建设的通知》，明确2025年度独立新型储能电站向公用电网放电的补偿标准为每千瓦时 0.35元，补偿期限10年。 吊车运转、机械轰鸣，在内蒙古自治区鄂尔多斯市达拉特旗，3000余名建设者在库布其沙漠加紧冲刺， 谷山梁3吉瓦/12.8吉瓦时储能电站项目初具雏形。 3吉瓦，体量有多大？"按极端用电高峰时每个家庭10千瓦的功率来算，可以同时为30万户家庭供 电。"内蒙古电力（集团）有限责任公司鄂尔多 ...

Core Viewpoint - Under the "dual carbon" goals, user-side commercial and industrial energy storage becomes a key factor for enterprise transformation, exemplified by the establishment of the Zhuhai user-side commercial energy storage project by Haibo Technology and Gaojing Solar, featuring a capacity of 28.5 MW/100 MWh [1][3]. Group 1: Project Overview - The Zhuhai project utilizes Haibo Technology's advanced liquid cooling energy storage system, employing a "peak shaving and valley filling" model to reduce Gaojing Solar's electricity costs [3]. - The project is designed to meet specific environmental conditions, including high temperature, humidity, and salt fog, ensuring suitability for on-site applications [4]. Group 2: Economic Impact - Following the adjustment of the time-of-use electricity pricing policy in Guangdong, peak electricity prices exceed 1 yuan per kWh, while valley prices are around 0.27 yuan per kWh, providing a new opportunity for high-energy-consuming enterprises to alleviate energy cost pressures [1]. - The implementation of the "two charges and two discharges" strategy by Haibo Technology aims to balance Gaojing Solar's peak and valley loads, thereby reducing public grid pressure and significantly lowering electricity costs [4]. Group 3: Technological Integration - The project integrates with Gaojing Solar's photovoltaic operations, allowing for the consumption of excess generated electricity and enhancing generation stability [4]. - The virtual power plant has been officially launched, enabling flexible participation in auxiliary service markets to continuously improve project revenue [4][6]. Group 4: Industry Trends - The energy usage logic in high-energy-consuming industries is undergoing fundamental changes, with off-peak electricity usage shifting from a flexible choice to a rigid necessity [6]. - Haibo Technology plans to deepen its customized "energy storage + X" strategic layout to empower enterprises in optimizing both energy utilization efficiency and operational costs [6].

Core Insights - Under the "dual carbon" goals, user-side commercial energy storage is becoming a key factor for enterprise transformation [1] - The project established by Haibo Sichuang Technology Co., Ltd. and its partners aims to reduce energy costs for high-energy-consuming enterprises through innovative energy storage solutions [2] Group 1: Project Overview - The Zhuhai user-side commercial energy storage project has a capacity of 28.5MW/100MWh and utilizes a "peak shaving and valley filling" model [1] - The project is designed to address high energy consumption and costs at the Zhuhai Jinwan base of Gaojing Solar, which faces significant electricity expenses [1][2] Group 2: Technological Features - The project employs Haibo Sichuang's advanced liquid cooling energy storage system, which offers high charge and discharge efficiency and long battery life [2] - Custom-designed products meet the environmental challenges of high temperature, humidity, and salt fog, ensuring operational reliability [2] Group 3: Economic Impact - The differentiated electricity pricing policy in Guangdong, with peak prices exceeding 1 yuan per kWh and valley prices around 0.27 yuan per kWh, provides a new opportunity for high-energy-consuming enterprises to reduce costs [1] - The project aims to significantly lower Gaojing Solar's electricity costs while enhancing operational efficiency through a "two charge, two discharge" strategy [2] Group 4: Market Context - The energy usage logic in high-energy-consuming industries is undergoing fundamental changes, with peak-shifting electricity usage becoming a rigid requirement rather than an elastic choice [2] - Haibo Sichuang plans to deepen its customized "energy storage + X" strategy to optimize energy utilization efficiency and operational costs for enterprises [2]

中证报中证网讯（王珞）近日，海博思创联合珠海科技产业集团下属新能源投控公司、高景太阳能股份 有限公司（以下简称"高景太阳能"），建成珠海用户侧工商业储能项目——高景太阳能珠海金湾基地 28.5MW/100MWh储能项目。海博思创表示，此项目深度应用"削峰填谷+光伏消纳+虚拟电厂"创新模 式，以实际行动精准践行公司"储能+X"战略布局。 海博思创表示，在电力市场政策持续完善与市场化进程加速推进的背景下，高耗能行业的能源使用逻辑 正经历根本性变革，错峰用电已从弹性选择转变为刚性需求。未来，公司将持续深化定制化"储能 +X"战略布局，精准赋能企业实现能源利用效率与运营成本的双向优化。 据介绍，结合电价政策，海博思创制定"两充两放"策略，调平高景太阳能峰谷负荷，缓解公共电网压 力，助力高景色太阳能大幅降低用电成本，实现持续降本增效。项目与基地光伏联合运行，消纳超发电 量，提升发电稳定性。目前已正式运行虚拟电厂，通过灵活参与辅助服务市场，持续提升项目收益。 据悉，此项目采用海博思创先进的液冷储能系统，以"削峰填谷"模式降低高景太阳能用电成本。该产品 兼具充放电效率高、电池寿命长的优势，配合舱级全氟己酮喷射+PACK级可 ...

Core Viewpoint - Under the "dual carbon" goals, user-side commercial energy storage is becoming a key factor for enterprise transformation [2] Group 1: Project Overview - The Zhuhai user-side commercial energy storage project, a collaboration between Haibo Sichuang and subsidiaries of Zhuhai Technology Industry Group and Gaojing Solar, has established a 28.5MW/100MWh energy storage project at the Zhuhai Jinwan base [2] - The project employs an innovative model of "peak shaving and valley filling + photovoltaic consumption + virtual power plant," aligning with Haibo Sichuang's "energy storage + X" strategic layout [3] Group 2: Cost Reduction Strategy - The project utilizes Haibo Sichuang's advanced liquid cooling energy storage system to reduce Gaojing Solar's electricity costs through a "peak shaving and valley filling" approach [5] - With the upcoming adjustment of time-of-use electricity pricing in Guangdong in 2025, peak electricity prices are expected to exceed 1 yuan per kWh, while valley prices will be around 0.27 yuan per kWh, providing a new opportunity for high-energy-consuming enterprises to alleviate energy costs [3] Group 3: Technological Innovations - The energy storage system features high charging and discharging efficiency and long battery life, along with a comprehensive fire safety solution tailored for high-temperature, high-humidity, and high-salt environments [5] - The project integrates with Gaojing Solar's photovoltaic operations to utilize excess generated power, enhancing generation stability and officially operating as a virtual power plant to flexibly participate in auxiliary service markets, thereby continuously increasing project revenue [5] Group 4: Industry Trends - The energy usage logic in high-energy-consuming industries is undergoing fundamental changes, with off-peak electricity usage shifting from a flexible choice to a rigid necessity [5] - Haibo Sichuang aims to deepen its customized "energy storage + X" strategic layout to empower enterprises in optimizing both energy utilization efficiency and operational costs [5]

Core Viewpoint - Under the "dual carbon" goals, user-side commercial and industrial energy storage becomes a key factor for enterprise transformation, exemplified by the establishment of the Zhuhai user-side commercial energy storage project by Haibosichuang and its partners [1][3]. Group 1: Project Overview - The Zhuhai project features a 28.5MW/100MWh energy storage system that employs an innovative model of "peak shaving and valley filling + photovoltaic consumption + virtual power plant" [1]. - The project aims to alleviate the high electricity costs faced by Gaojing Solar at its Zhuhai Jinwan base, which has high energy consumption in production [1]. Group 2: Economic Impact - Following the adjustment of the time-of-use electricity pricing policy in Guangdong by 2025, peak electricity prices are expected to exceed 1 yuan per kWh, while valley prices will be around 0.27 yuan per kWh, providing a new opportunity for high-energy-consuming enterprises to reduce energy costs [1]. Group 3: Technological Features - The project utilizes Haibosichuang's advanced liquid cooling energy storage system, which features high charging and discharging efficiency and long battery life [3]. - A comprehensive fire safety solution is implemented, including cabin-level perfluorohexane injection and PACK-level combustible gas detection, ensuring early warning and rapid response to potential hazards [3]. Group 4: Operational Strategy - Haibosichuang has developed a "two charges and two discharges" strategy to balance Gaojing Solar's peak and valley loads, thereby alleviating pressure on the public grid and significantly reducing electricity costs [3]. - The project operates in conjunction with the photovoltaic system to utilize excess generated electricity, enhancing power generation stability [3]. Group 5: Market Context - The energy usage logic in high-energy-consuming industries is undergoing fundamental changes, with peak-shaving electricity usage shifting from a flexible choice to a rigid necessity [5]. - Haibosichuang plans to deepen its customized "energy storage + X" strategic layout to optimize energy utilization efficiency and operational costs for enterprises [5].

Core Viewpoint - The article highlights the successful commissioning of the 80MW/240MWh user-side energy storage project by Jiyuan Steel, Envision Technology, and China Nuclear (Nanjing) Energy, marking it as the largest project of its kind in the domestic steel and metallurgy industry [5]. Group 1: Project Overview - The 80MW/240MWh user-side energy storage project represents the largest scale in the domestic steel and metallurgy sector [5]. - The total investment for the project exceeds 200 million yuan, utilizing a peak shaving and valley filling application model [5]. - The project aims to significantly improve the electricity consumption structure, reduce electricity costs, and expand product markets for the enterprise, generating positive ecological, social, and economic benefits [5]. Group 2: Industry Events - The 14th Energy Storage International Conference and Expo (ESIE 2026) is scheduled to take place from April 1-3, 2026, at the Capital International Exhibition Center in Beijing, featuring over 1,000 sponsors and exhibitors [6]. - The event will cover an exhibition area of 160,000 square meters, attracting more than 200,000 visitors and 5,000 industry-related enterprises [6].

Core Insights - The concept of Vehicle-to-Grid (V2G) is gaining traction as electric vehicle owners can potentially earn money by selling electricity back to the grid, marking a shift in energy and transportation integration [2][3] - V2G technology allows electric vehicles to act as mobile energy storage units, providing power to the grid during peak demand and charging during off-peak times, thus enhancing grid stability and efficiency [2][3][5] V2G Development and Implementation - V2G has transitioned from experimental stages to practical applications, with pilot projects launched in several Chinese cities starting in 2023, and a formal announcement of large-scale applications in 2024 [3][6] - By 2050, it is projected that China will have over 350 million electric vehicles, with a total storage capacity of 240 billion kilowatt-hours, fundamentally changing the operation of the power system [3][6] Economic Model and Benefits - The V2G model operates on a dual charging and discharging mechanism, allowing vehicle owners to charge during low-cost periods and discharge during high-cost periods, thus capitalizing on price differentials [5][6] - For instance, in a Beijing pilot, vehicle owners could earn over 1,700 yuan annually by participating in V2G, with even higher potential earnings in other regions like Wuhan [6][7] Strategic Importance - V2G addresses the "double peak" challenge in China's power system, providing a flexible and cost-effective solution for peak load management, with estimates suggesting it could contribute 200 million kilowatts of peak shaving capacity by 2030 [7][9] - The technology also enhances the utilization of renewable energy sources by absorbing excess green electricity and releasing it during periods of low generation, supporting carbon neutrality goals [7][9] Future Outlook and Challenges - Despite its potential, V2G faces challenges such as high costs of V2G charging stations, the need for vehicles to support bidirectional charging, and concerns over battery lifespan due to frequent charging cycles [10][11] - Industry forecasts suggest that by 2028, all new electric vehicles sold in China will be equipped with V2G capabilities, with over 10 million vehicles participating in discharging by 2030, necessitating collaboration across policy, industry, and technology sectors [11][12]

Core Viewpoint - The implementation of the "Five-Period" time-of-use electricity pricing mechanism in Shandong since 2021 aims to optimize electricity consumption patterns, benefiting both individual consumers and businesses by reducing electricity costs and alleviating pressure on the power grid [1][2][4]. Group 1: Time-of-Use Pricing Mechanism - The "Five-Period" pricing divides the day into five segments: peak, flat, valley, and deep valley, with varying rates to encourage users to consume electricity during off-peak hours [2][4]. - The pricing structure allows for significant savings; for example, deep valley pricing can be as low as 0.222 yuan per kWh, while peak pricing can reach 0.888 yuan per kWh, creating a price difference of up to 90% [2][4]. Group 2: Benefits for Consumers - Individual consumers, such as electric vehicle owners, can save significantly by charging during low-cost periods. For instance, charging during deep valley hours can reduce annual electricity costs to around 600 yuan compared to 1731 yuan without time-of-use pricing [3][4]. - A case study of a consumer switching from gasoline to electric vehicles shows a drastic reduction in annual costs from nearly 12,000 yuan to about 700 yuan due to the adoption of time-of-use pricing [1][3]. Group 3: Benefits for Businesses - Businesses in agriculture and industry can also benefit from the pricing mechanism by adjusting their operational hours to take advantage of lower rates. For example, an agricultural company saved nearly 300 yuan per irrigation session by shifting its watering schedule [4][5]. - In the industrial sector, companies can save substantial amounts; for instance, a manufacturing company reported savings of over 200,000 yuan per month by optimizing energy-intensive processes to align with lower pricing periods [5][6]. Group 4: Impact on Renewable Energy Consumption - The pricing mechanism is designed to enhance the consumption of renewable energy, particularly during peak production times for solar and wind energy, thus supporting the integration of green energy into the grid [5][6]. - By 2024, the time-of-use pricing is expected to increase the capacity for midday renewable energy consumption by approximately 583.87 MW, helping to balance supply and demand during peak hours [6].

Core Viewpoint - Inner Mongolia Energy Group has officially commenced construction on five independent energy storage projects, which are expected to enhance the region's energy management and stability [1] Project Details - The five projects include: - Tuquan: 500,000 kW / 2,000,000 kWh independent energy storage station - Dengkou: 400,000 kW / 1,600,000 kWh independent energy storage project - Huade: 500,000 kW / 2,000,000 kWh independent energy storage project - Chifeng City, Balinzuoqi: 400,000 kW / 1,600,000 kWh independent energy storage project - Sunite Right Banner: 300,000 kW / 1,200,000 kWh independent energy storage station [1] Technology and Safety Measures - The projects will utilize advanced blade battery stacking technology and square lithium iron phosphate batteries, adhering to strict fire safety requirements [1] - Fire safety measures include the installation of physical fire-retardant paint and dual fire protection systems using perfluorohexane gas and water sprinklers [1] Operational Benefits - Once completed, the large-capacity energy storage systems will effectively implement "peak shaving and valley filling," improving the management of renewable energy sources and enhancing the flexibility of marketing strategies [1] - The projects will ensure reliable power supply by increasing the frequency of charge and discharge cycles and significantly improving grid regulation and stability [1]