Liquid thermal-management components for vehicles and storage

Real application / NEW ENERGY / BATTERIES & POWER ELECTRONICS

New-energy vehicles and energy storage

For traction batteries, storage cabinets and fast-charging power modules, with cooling designed around uniformity, space, environment and safety boundaries.

Engineering focus

Liquid-cooling design priorities for this application

Step 01

Solution inputs

Dynamic battery and power-electronics loads
Balance uniformity, energy use, vibration and environmental fit
Cold plates, distribution, pumping and external heat exchange

Step 02

System path

1. Define the workload

Confirm sustained and peak thermal load, density, operating profile and service windows.

2. Set the liquid boundary

Map cold plates, server loops, rack distribution, CDU capacity and facility-water conditions.

3. Plan deployment

Coordinate redundancy, controls, access, commissioning and staged expansion.

Step 03

Before implementation

Balance uniformity, energy use, vibration and environmental fit
Cold plates, distribution, pumping and external heat exchange

Step 04 — Result

Operational outcomes

Clarifies the system boundary before equipment selection
Connects application requirements to a verifiable engineering path

Engineering details

Decision inputs and delivery evidence

Decision inputs

Dynamic battery and power-electronics loads

Validation and delivery evidence

Thermal stability under the stated load profile
Flow, pressure, leak and alarm records tied to acceptance criteria

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Real application / NEW ENERGY / BATTERIES & POWER ELECTRONICS

New-energy vehicles and energy storage

For traction batteries, storage cabinets and fast-charging power modules, with cooling designed around uniformity, space, environment and safety boundaries.

Engineering focus

Liquid-cooling design priorities for this application

Step 01

Solution inputs

Dynamic battery and power-electronics loads
Balance uniformity, energy use, vibration and environmental fit
Cold plates, distribution, pumping and external heat exchange

Step 02

System path

1. Define the workload

Confirm sustained and peak thermal load, density, operating profile and service windows.

2. Set the liquid boundary

Map cold plates, server loops, rack distribution, CDU capacity and facility-water conditions.

3. Plan deployment

Coordinate redundancy, controls, access, commissioning and staged expansion.

Step 03

Before implementation

Balance uniformity, energy use, vibration and environmental fit
Cold plates, distribution, pumping and external heat exchange

Step 04 — Result

Operational outcomes

Clarifies the system boundary before equipment selection
Connects application requirements to a verifiable engineering path

Engineering details

Decision inputs and delivery evidence

Decision inputs

Dynamic battery and power-electronics loads

Validation and delivery evidence

Thermal stability under the stated load profile
Flow, pressure, leak and alarm records tied to acceptance criteria

New-energy vehicles and energy storage

Liquid-cooling design priorities for this application

What this solution is designed to solve: New-energy vehicles and energy storage

Solution inputs

System path

1. Define the workload

2. Set the liquid boundary

3. Plan deployment

Before implementation

Operational outcomes

Decision inputs and delivery evidence

Decision inputs

Validation and delivery evidence

New-energy vehicles and energy storage

Liquid-cooling design priorities for this application

What this solution is designed to solve: New-energy vehicles and energy storage

Solution inputs

System path

1. Define the workload

2. Set the liquid boundary

3. Plan deployment

Before implementation

Operational outcomes

Decision inputs and delivery evidence

Decision inputs

Validation and delivery evidence