ENERGY STORAGE MATERIAL MANUFACTURING

What is the material of the energy storage container
Currently, weathering steel is a widely used structural material for energy storage containers.It has good mechanical strength, welding performance and cost advantages, and is suitable for mass production and complex structure manufacturing.Weathering steel can also form a stable corrosion protection layer on the surface, which improves its corrosion resistance and prolongs its service life.Compared to stainless steel, this type of steel ensures structural strength while significantly reducing material cost and weight, which is a good balance between performance and economy. [pdf]

Industrial Park Container Energy Storage Project
With the company’s expanding production scale and increasing requirements for Enterprise Energy Management, the construction of an Industrial Park Energy Storage Solution helps the enterprise achieve Peak Shaving and Valley Filling, reduce electricity costs, and enhance the stability and reliability of power supply, ensuring smooth production.This project adopts Lithium Iron Phosphate (LFP) Batteries, featuring High Energy Density Batteries and Long Cycle Life Batteries, with an installation scale of 875 kW/1827 kWh. [pdf]

New energy storage field enters scale
On September 12, the National Development and Reform Commission and the National Energy Administration released the “ New Energy Storage Scale Development Action Plan (2025-2027)”, which clearly proposes that by 2027, new energy storage will basically achieve scale and market-oriented development, with technological innovation and equipment manufacturing capabilities remaining at the forefront globally. [pdf]

Solar power generation and automotive energy storage
This paper explores the concept of electric power generation from SEV shighlighting how embedded solar panels can convert sunlight into usable electrical energy for vehicle propulsion, battery charging, and even grid support through bidirectional energy systems.While current technological limitations—such as low surface area, variable solar efficiency, and high costs— pose challenges to large-scale adoption, advancements in lightweight materials, high-efficiency PV cells, and intelligent energy management systems are steadily improving SEV viability. [pdf]
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