Cooling mode
The compressor runs the refrigeration circuit. The heat exchanger transfers cooling to the liquid circuit to help control battery-cell temperature.
CTMM-S3VW800LF5-380-1
CTMM-S3VW800LF5-380-1 is a vertical 80kW liquid cooling chiller for electrochemical energy storage battery coolant loops. At the specified L45°C/W20°C rating point, cooling capacity is at least 80kW. The unit provides 30kW heating and pump circulation, with 600 L/min rated coolant flow and 15m head at that flow. Share your thermal load, liquid circuit and site conditions for configuration review.
Engineering snapshot · CTMM-S3VW800LF5-380-1
This vertical liquid cooling temperature control module serves an electrochemical energy storage battery coolant loop. Use the stated duty point and liquid-circuit values as the starting point for an engineering selection.
| Parameter | Specification | Remarks |
|---|---|---|
| Cooling Capacity | ≥80 kW @ L45°C / W20°C | |
| Energy Efficiency Ratio | ≥1.9 W/W @ L45°C / W20°C | |
| Heating Capacity | 30 kW | |
| Rated Flow | 600 L/min | |
| Head | 15 m @ 600 L/min | External head customizable |
| Operating Ambient Temperature | -30 to 55°C | |
| Storage Ambient Temperature | -40 to 70°C | |
| Noise | ≤80 dBA @ 1 m | 35°C |
| Altitude | ≤4000 m | |
| Refrigerant | R410A | |
| Applicable Cooling Medium | 50% ethylene glycol aqueous solution | |
| Liquid Temperature Control Accuracy | ±1°C | |
| Water Pressure Display Accuracy | 0.1 bar | |
| Coolant Set Temperature Range | 10 to 35°C | |
| Dimensions (W × D × H) | 1200 × 500 × 2400 mm | Vertical |
| Net Weight | ≤550 kg | |
| Color | RAL 9003 | |
| Electric Control Protection Class | IP55 | |
| Anti-corrosion Class | C3 | Customizable as required |
| Inlet / Outlet Pipe Interface | Φ106 chuck | Customizable as required |
| Maximum Water Circuit Pressure Resistance | 600 kPa | |
| Power Supply | 3/PE AC 400 V, 50/60 Hz | |
| Rated Power | ≤42 kW @ L45°C / W20°C | |
| Maximum Input Power | ≤47 kW | |
| No-load Loss | ≤100 W | |
| Maximum Starting Current | ≤95 A | |
| Communication | CAN / RS485 | |
| RoHS Compliance | Compliant with RoHS | |
| Design Life | ≥10 years | 7 × 24 h |
| Make-up Water Volume | 8 L | |
| Pressure Relief Valve Set Pressure | 3 bar |
Function and control
The specification identifies cooling, heating and pump circulation as separate operating modes. The selected mode and target inlet/outlet coolant temperatures are communicated by the upper controller or control terminal.
The compressor runs the refrigeration circuit. The heat exchanger transfers cooling to the liquid circuit to help control battery-cell temperature.
An electric heater warms the coolant when the battery thermal-management system requires heating. The specified heating capacity is 30 kW.
The pump circulates coolant to help equalize battery-cell temperatures; the specification states that the other mode components need not run in this mode.
Control interface: CAN/RS485 is specified. Confirm the project control protocol, target temperatures and mode commands during integration.
Project integration checklist
The data below is from the product specification. External head, pipe interface and anti-corrosion class can be reviewed against project requirements.
Send your project duty point for a configuration reviewInclude thermal load, liquid supply/return temperatures, flow, external circuit resistance, ambient and altitude, installation space, power and control requirements.
Request an 80kW selectionComparing capacities? Explore the established BESS liquid cooling chiller series.
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The specification states at least 80kW at L45°C/W20°C. Provide your required coolant temperatures and site operating conditions so the applicable performance can be checked for your project.
The specified cooling medium is a 50% ethylene glycol aqueous solution. Confirm the project fluid specification and liquid circuit during selection.
Compare the required flow and total external circuit resistance with the unit’s stated 600 L/min rated flow and 15m head at that flow. External head can be configured to project requirements.
The product specification lists cooling, heating and pump circulation. Cooling uses the refrigeration circuit, heating uses an electric heater, and circulation runs the pump without requiring the other modes.
Send the thermal load and duty point, required liquid supply/return temperatures, coolant specification, flow and external resistance, site ambient and altitude, installation space, electrical supply and CAN/RS485 requirements.
Compare the product range, understand rated conditions, and prepare the information needed for a technical quotation.
Review liquid cooling solutions for energy storage applications.
Understand how cooling capacity, flow rate and rated conditions affect selection.
Organize heat load, ambient conditions, liquid circuit and installation requirements before requesting a quote.
Tell us your cooling duty point, coolant flow and temperatures, site conditions and installation requirements. Our team will review the applicable configuration and respond with the information needed for a quotation.