5.01 MWh Liquid Cooling ESS Battery Container
Product List
| System parameters | |
| Battery Pack Parameters | |
| Project | Product Parameters |
| Cell type | LFP314Ah |
| Combination method | 1P52S |
| Rated voltage (Vdc) | 166.4 |
| Rated energy (kWh) | 52.25 |
| Magnification (Cp) | ≤0.5 |
| Battery cluster parameters | |
| Project | Product Parameters |
| Pack number of strings | 8S |
| Operating voltage range (Vdc) | 1164.8~1497.6 |
| Rated voltage (Vdc) | 1331.2 |
| Rated energy (kWh) | 417.997 |
| Magnification (Cp) | ≤0.5 |
| Battery system parameters | |
| Project | Product Parameters |
| Number of battery clusters | 12 |
| Rated voltage (Vdc) | 1331.2 |
| Rated energy (kWh) | 5015.96 |
| Magnification (Cp) | ≤0.5 |
| Qualifying Method | DC bus |
| Standard parameters | |
| Project | Product Parameters |
| Dimensions (W*D*H) (mm) | 6058×2550×3100 |
| Weight (t) | <50 |
| Operating temperature range (℃) | -30~55 |
| Relative humidity (%RH) | 0~95%RH |
| Working altitude (m) | ≤3000 |
| Cooling method | Liquid cooling |
| Protection level | IP54 |
| Communication interface | 4G Wireless/Ethernet |
| Qualifying Method | Down in, down out |
| Firefighting methods | Pack-grade perfluorohexanone, with reserved water fire-fighting interface. |
Benefit
Benefit
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High-quality battery cells from leading manufacturers
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Advanced liquid cooling technology
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Standardized design, flexible configuration
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Pack-level fire protection
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High safety performance
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Intelligent platform, supporting mobile APP and web access
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Liquid Cooling System Solution
- Liquid cooling system: Includes liquid cooling unit, piping, liquid cooling plates, and mounting pump, coolant, etc.
- Compared to air cooling solutions, it improves thermal management efficiency, space utilization, reduces temperature differences, and enhances battery performance.
- Intra-cluster temperature difference can be controlled within 3°C, energy density is increased by 160%, and thermal management power consumption is reduced by 40%.
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1500V DC High-Voltage System
-Increases power and energy density of energy storage systems.
-Reduces energy storage system costs and installation/maintenance costs.
-Reduces parallel losses in energy storage systems, improving system efficiency.
-Compared to 1000V systems, power/energy density is increased by approximately 30%, system cost is reduced by approximately 10%, and system efficiency is improved by approximately 1%.
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Non-walk-in design
- Non-walk-in structure: Doors open on both sides of the container, with no aisle in the middle.
- Improves the convenience and efficiency of installation and maintenance, and enhances the safety of construction personnel.
- Increases the energy density of the energy storage system.
