Aluminum EV & ESS Battery Cooling Plate for New Energy Energy Storage

We solve these problems by treating every cold plate order as a custom engineering project:

· Tailored to Your Module: Our engineering team works directly with your 3D module layout to optimize channel routing, port placement, and mounting features. No compromises, no wasted space.
· Full Certification Support: Every shipment includes complete material mill certificates, dimensional inspection reports, and individual helium leak test records. This documentation package directly supports your UL 1973 and UL 9540A submission.
· Consistent Manufacturing from Day One: We use the same precision stamping and sealing process for single prototypes as we do for 10,000-unit production runs. The thermal and mechanical performance you validate in the lab is what you get in the container.
· Optional Condensation Management: For installations in high-humidity climates, we offer integrated insulation layers and design features that mitigate cold surface sweating.

· Electric Vehicle (EV) & Energy Storage Systems (ESS): Direct liquid cooling for prismatic/cylindrical battery modules and onboard chargers (OBC), preventing thermal propagation and enabling 4C fast charging.
· Data Center & High-Performance Computing (HPC): Cold plates designed for Intel Xeon, AMD EPYC, and NVIDIA GPU architectures; compatible with direct-to-chip (DTC) and immersion cooling loops.
· Medical & Aesthetic Lasers: High-uniformity cold plates ensuring stable wavelength output from diode laser stacks and IPL systems.
· Renewable Energy & Rail Transit: Thermal management for wind power converters, flexible DC transmission IGBT stacks, and traction inverters operating under harsh shock and vibration loads.

Our liquid cooling plate operates on the principle of conjugate heat transfer. Waste heat generated by the active component conducts through the thermal interface material (TIM) into the cold plate's aluminum top plate. Beneath the surface, precisely machined or stamped internal fins — bonded via continuous brazing — interrupt the thermal boundary layer, forcing the coolant into a state of turbulent flow.

1. Heat Absorption: Coolant enters the inlet plenum at a controlled low temperature.
2. Turbulent Exchange: As the fluid navigates the serpentine or pin-fin channel, high-velocity mixing strips heat from the continuous brazed metal walls with maximum efficiency.
3. Efficient Exhaust: The heated fluid exits to a remote heat exchanger or chiller (CDU), dissipating the thermal load away from the sensitive components. This closed-loop circulation ensures zero contaminant leakage into the environment and maintains stable operating temperatures under fluctuating loads.