| Price: | Negotiable |
| Payment Terms: | L/C T/T |
The 2MWh Commercial and Industrial Lithium Battery Energy Storage System is a high-capacity energy storage solution designed for commercial and industrial facilities seeking greater energy flexibility, improved power management, and optimized electricity costs.
By integrating lithium battery technology, a battery management system (BMS), power conversion system (PCS), energy management system (EMS), thermal management, and comprehensive safety protection, the system provides a coordinated platform for storing and dispatching electrical energy according to load demand and operating conditions.
With approximately 2MWh of usable energy capacity, the system can be configured for applications such as peak shaving and load shifting, renewable energy integration, backup power, microgrids, and demand-side energy management.
The system provides around 2MWh of energy storage capacity, making it suitable for medium- and large-scale commercial and industrial applications.
The actual usable capacity, charge/discharge power, and operating duration can be customized according to the project requirements, including facility load profiles, electricity tariffs, renewable generation, and required backup duration.
The system uses lithium battery technology designed for stationary energy storage applications. Battery modules are organized into racks and connected with the appropriate battery management and power conversion equipment.
The BMS continuously monitors key battery operating parameters such as voltage, current, temperature, and state of charge (SOC), helping operators and control systems maintain the battery within its specified operating range.
A complete commercial and industrial energy storage system requires more than batteries alone.
The 2MWh system can integrate:
This integrated architecture allows the energy storage system to work as part of a facility's overall energy management strategy.
Electricity demand can vary significantly throughout the day. The energy storage system can charge during selected periods and discharge during periods of higher demand, subject to the site's tariff structure and operating strategy.
This can help commercial and industrial users manage peak demand and shift energy consumption to more favorable periods.
The 2MWh battery energy storage system can be combined with commercial and industrial photovoltaic installations.
Excess solar electricity generated during periods of high solar production can be stored and subsequently used when photovoltaic output decreases. This can improve the coordination between renewable generation and facility electricity consumption.
When appropriately configured with the required PCS, switchgear, controls, and grid connection architecture, the system can support backup or emergency power applications.
The actual backup capability depends on factors such as critical load capacity, required backup duration, battery state of charge, PCS rating, and site electrical configuration.
The system can serve as an energy storage component within a commercial or industrial microgrid. It can coordinate with photovoltaic systems, generators, utility power, and facility loads to support flexible energy management.
Safety is a fundamental consideration in large-scale lithium battery energy storage.
The 2MWh system can incorporate multiple layers of protection, including battery-level monitoring, over-voltage and under-voltage protection, over-current protection, temperature monitoring, system alarms, and controlled charge/discharge operation.
Depending on the system configuration and applicable market requirements, additional protection and fire safety equipment can be integrated into the energy storage container or cabinet.
For any commercial or industrial energy storage project, the final safety configuration should be determined according to the selected battery chemistry, system design, installation environment, local electrical codes, fire regulations, and applicable certification requirements.
A 2MWh energy storage system does not necessarily have a single standardized configuration. The battery capacity and power rating should be selected according to the project's specific operating requirements.
Typical design considerations include:
This flexibility allows the system to be adapted to factories, warehouses, commercial buildings, data-related facilities, logistics centers, charging infrastructure, and other energy-intensive sites.