The energy storage container is an integrated energy storage system primarily developed to meet the needs of the mobile energy storage market. Below are some key information about the energy storage container: Classification: Classified by materials used: Energy storage containers can be categorized into aluminum alloy containers, steel containers, and fiberglass containers. Aluminum alloy containers are lightweight, corrosion-resistant, and have good elasticity, but they are expensive and have poor welding performance. Steel containers have high strength, robust structure, and high weldability, but they are heavy and have poor corrosion resistance. Fiberglass containers have high strength, thermal insulation, corrosion resistance, and good chemical resistance, but they are heavy and prone to aging. Design and composition: The energy storage container integrates a battery cabinet, a lithium battery management system (BMS), and a container dynamic environmental monitoring system. It can also be customized to include an energy storage converter and an energy management system according to customer needs. The battery compartment mainly includes batteries, battery racks, BMS control cabinets, heptafluoropropane fire extinguishing cabinets, cooling air conditioners, smoke sensing lighting, surveillance cameras, etc. The battery types can be lithium iron phosphate batteries, lithium batteries, lead-carbon batteries, and lead-acid batteries. Technical features: The energy storage container exhibits excellent environmental adaptability, boasting capabilities such as corrosion resistance, fire prevention, waterproofing, dustproofing, shock resistance, and UV protection. The steel structure is made of high-weather-resistant steel plates and features a flat-top structure, facilitating easy stacking. The shell is made of two layers of steel plates, with A-grade fire-retardant rock wool filled in between, providing waterproofing. Configure an escape door that leads directly to the outside, and equip the power distribution cabin with double-leaf shutter doors and ventilation shutters. Four symmetrical grounding points are set at the four corners of the box exterior, and there should be obvious grounding signs. Application scenarios: Energy storage containers are widely used in various stages of power systems, including generation, transmission, distribution, and utilization, as well as in scenarios such as ships, factories, large load centers, power stations, user-side energy storage, and microgrids. It can serve as an auxiliary means for grid stability, reducing grid load fluctuations and enhancing the stability and safety of the grid by storing and releasing electrical energy. In regions abundant in renewable energy sources such as wind and solar power, energy storage containers can store excess electrical energy and release it during peak energy demand periods, balancing grid load and promoting the consumption of renewable energy. In remote areas, islands, and other regions with unstable power supply, energy storage containers can be integrated with renewable energy generation equipment to form a standalone microgrid system, providing reliable power supply for local residents and businesses. The energy storage container can also be rapidly deployed as an emergency backup power source, providing power support for critical facilities and residents. Energy storage containers, characterized by their high degree of modularization, ease of transportation, and installation, have emerged as one of the future directions for energy storage technology development. Prefabricated cabin is an integrated electrical equipment, featuring the following characteristics and applications: Definition: Prefabricated cabinets are complete sets of electrical equipment that have undergone full or partial assembly, debugging, and testing in a factory, and are capable of being quickly assembled at the installation site. They possess a certain level of protection and can serve as a place for equipment transfer. Composition: The prefabricated cabin consists of a prefabricated cabin body, secondary equipment cabinets (or racks), and auxiliary facilities for the cabin body. The fabrication, assembly, wiring, and debugging are completed in the factory, and the entire structure is transported to the project site as a single unit. Technical features: Standardization: The dimensions of the prefabricated cabin are based on standard container dimensions and have been appropriately modified to accommodate the adoption and operation of equipment. Modularity: Prefabricated cabins are divided into multiple modules based on the different functions of their internal equipment, such as public equipment prefabricated cabins, partition equipment prefabricated cabins, etc. Prefabrication: The cabin structure, internal equipment installation, and inter-equipment wiring are all processed using factory prefabrication methods, and all equipment installation, wiring, and debugging work is completed in the factory. Application areas: Prefabricated cabinets are widely used in urban power grids, industrial parks, new energy, and other fields. In urban power grids, prefabricated cabinets can serve as an alternative to power equipment such as substations and distribution rooms. In industrial parks, prefabricated cabinets meet the power needs of various enterprises within the park. In the new energy field, prefabricated cabinets can serve as supporting equipment for new energy devices such as wind power generation and solar power generation. Environmental adaptability: The prefabricated cabin box adopts special sealing materials and anti-corrosion measures, boasting excellent waterproof, dustproof, and anti-corrosion properties, enabling it to adapt to various harsh environments.