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High-Performance Custom Aluminum Liquid Cooling Plate for Energy Storage Battery Packs

High-Performance Custom Aluminum Liquid Cooling Plate for Energy Storage Battery Packs

MOQ: 100pcs
Price: Negotiable
Standard Packaging: Ply-Wood Box Specialized for Export
Delivery Period: 30 days
Payment Method: T/T,L/C
Supply Capacity: 2000pcs/day
Detail Information
Place of Origin
China
Brand Name
Trumony
Certification
ISO9001,IATF16949
Model Number
Trumony-05205
Process:
Brazing,CNC,
Shape:
Customize
Warranty:
1 Year
Surface Treatment:
Anodizing, Powder Coating
Highlight:

custom aluminum liquid cooling plate

,

energy storage battery cooling plate

,

high-performance liquid cold plate

Product Description
Product Overview

Trumony's custom liquid cooling plates deliver superior thermal management for high-power applications. Engineered for battery energy storage systems, electric vehicle battery packs, and IGBT modules, our aluminum cold plates combine high thermal conductivity with low-pressure-drop flow channels. As a factory-direct manufacturer, we provide a true one-stop service: from collaborative design and rapid prototyping to mass production and rigorous testing. Every plate is fully customizable in dimensions, flow path configuration, surface plating, and connector type — ensuring an optimal fit for your specific thermal requirements. With proven reliability across North American and advanced Asian markets, our liquid cooling solutions help you extend component lifespan, maintain stable operating temperatures, and maximize system efficiency.

Cause: Why Thermal Management Can’t Be an Afterthought

In high-density energy storage systems, EV traction batteries, and IGBT power modules, excessive heat is the primary enemy of performance and safety. When temperatures rise unchecked:

  • Battery life degrades significantly — a 10°C increase can halve cycle life.
  • Charging speed and usable capacity drop to protect cells.
  • IGBT modules suffer from thermal runaway, leading to catastrophic failure in inverters and motor drives.
  • Entire systems face derating, unexpected downtime, and even fire hazards.

Passive air cooling is no longer sufficient for today’s power densities. As voltages climb and fast charging becomes standard, the industry demands an efficient, reliable active cooling solution that can keep temperature differences between cells below 2°C. Liquid cooling, with its high heat transfer capacity, has become the preferred choice — but only if the cold plate is precisely engineered for the application.

Solution: Trumony Custom Liquid Cooling Plates

We address these thermal challenges head-on with fully customized liquid cooling plates built to your specifications. Our in-house engineering team works directly with you to design and produce plates that perfectly match your pack layout, heat load, and system pressure requirements. Whether you need a serpentine flow path for uniform battery cooling, a parallel channel design for low pressure drop, or a micro-channel structure for intense IGBT hotspots, we manufacture the right solution.

What sets us apart is our end-to-end capability: we control everything from raw aluminum material selection and CNC machining to vacuum brazing, helium leak testing, and final surface treatment — all under one factory roof. This one-stop service dramatically shortens lead times, guarantees quality, and allows us to deliver competitively priced liquid cooling plates with certifications ready for your target markets.

Specifications
Parameter Details
Parameter Specification
Base Material Aluminum 3003, 6061, 6063 (other alloys upon request)
Coolant Type Water-glycol mixture, dielectric fluids, refrigerants
Manufacturing Process CNC machining, vacuum brazing, friction stir welding (FSW)
Max Operating Pressure Up to 500 kPa (custom higher pressure designs available)
Leak Rate < 1×10⁻⁹ Pa·m³/s (helium mass spectrometer tested)
Surface Treatment Hard anodizing, electroless nickel plating, anti-corrosion coating, passivation
Thermal Conductivity ≥ 180 W/m·K (base material)
Temperature Uniformity ΔT ≤ 2°C across the plate surface
Customizable Options Dimensions, flow channel layout, inlet/outlet positions, fitting types, mounting holes
Certifications ISO 9001, IATF 16949 (for automotive), UL, RoHS, REACH compliant
Design Support CFD thermal simulation & flow analysis report provided before tooling
High-Performance Custom Aluminum Liquid Cooling Plate for Energy Storage Battery Packs 0
Application
  1. Battery Energy Storage Systems (BESS)
    From residential 48V stacks to utility-scale containerized storage, our liquid cooling plates maintain cell temperatures within the ideal 20–35°C window. They prevent thermal runaway propagation in densely packed 52S or similar high-voltage modules, ensuring long cycle life and safety compliance for the North American and Asian grid storage markets.
  2. Electric Vehicle Battery Packs
    Designed for passenger EV packs, commercial vehicle batteries, and two/three-wheeler swappable packs. Our plates deliver the necessary cooling for fast-charging Li-ion cells, keeping inter-cell temperature difference well under 2°C to guarantee range, power, and 8-year warranties.
  3. IGBT & Power Module Cooling
    For traction inverters, industrial motor drives, wind turbine converters, and UPS systems. Our cold plates manage concentrated heat fluxes exceeding 100 W/cm², enabling compact IGBT stacks to run reliably without derating.
  4. Other High-Heat-Flux Electronics
    Server CPU/GPU liquid cooling, laser diode arrays, and medical imaging equipment where precise temperature control is critical.
How It Works

Liquid cooling plates work on a simple but highly effective principle: a coolant fluid, typically a water-glycol mixture, is circulated through an internal network of channels machined directly into an aluminum plate. As the fluid passes through these channels, it absorbs heat conducted from the heat source mounted on the plate's surface — be it battery cells, an IGBT baseplate, or a DC-DC converter. The heated fluid is then pumped out to an external heat exchanger (radiator or chiller), where it releases the heat into the ambient environment. The cooled fluid recirculates back into the cold plate in a closed loop. Unlike air cooling, liquid’s significantly higher thermal capacity and density enable it to remove far more heat with a smaller footprint and at a lower acoustic noise level. Trumony’s optimized internal channel geometries — whether serpentine, parallel, or pin-fin — are designed using computational fluid dynamics (CFD) to balance heat transfer efficiency and pressure drop, ensuring your pump system doesn’t work harder than necessary.

How To Choose Your Liquid Cooling Plate

Selecting the right liquid cooling plate is critical to system performance. Work with our engineers by considering these factors:

  1. Heat Load (W): Calculate the total amount of heat your battery pack or IGBT generates. This determines the required plate size and coolant flow rate.
  2. Temperature Uniformity Needs: For batteries, specify the maximum allowed temperature difference between the hottest and coolest cell. We will design the flow path to meet it.
  3. Space & Integration Constraints: Share your 3D model or dimensional drawing. Our design team will nest the cold plate into your available volume and position inlet/outlet fittings for a perfect mechanical fit.
  4. Coolant System Parameters: Tell us your system’s available pump pressure and flow rate. We optimize the internal channel design for low pressure drop to reduce pump energy consumption.
  5. Environmental & Compatibility Factors: Choose surface treatment (e.g., electroless nickel plating for corrosion resistance, hard anodizing for electrical insulation) based on your coolant chemistry and operating environment.
  6. Volume & Certification Needs: Confirm your projected annual quantities and target market certifications. As a factory, we guide you to the most cost-effective manufacturing method and ensure full compliance.

Simply send us your requirements; our one-stop service team returns a detailed proposal including CFD simulation results, a 3D printable prototype sample, and a mass production plan — all within an industry-leading timeline.

FAQ
Q1: I don’t have a finalized design. Can you help from the concept stage?

Absolutely. That is the core of our one-stop service. Share your heat load, space envelope, and target thermal performance. Our engineers will propose an initial flow channel design, run CFD simulations for your approval, and then move to prototype. We guide you from idea to serial production.

Q2: What is the minimum order quantity (MOQ) for custom liquid cooling plates?

We have no fixed MOQ for the prototype and NPI (New Product Introduction) stage. For mass production, we work flexibly with your volumes. As a factory serving global clients, we comfortably handle everything from small pilot runs to millions of pieces annually.

Q3: How do you ensure zero leaks in a water-cooled battery pack?

Quality is built in from the start. We use vacuum brazing for high-integrity joints and 100% test every single plate with a helium mass spectrometer, achieving leak rates tighter than 1×10⁻⁹ Pa·m³/s. Additionally, we conduct pressure cycling and thermal shock tests on pre-production samples validated according to customer durability requirements.

Q4: Do you hold certifications for the North American and Asian markets?

Yes. Our manufacturing is certified to ISO 9001 and IATF 16949. Our materials and components comply with RoHS, REACH, and UL standards as required by your product. We are also experienced in supporting customers through final system-level UL 9540A or UN 38.3 certification by providing detailed design and material documentation.

Q5: What kind of warranty and after-sales support do you offer for your cooling plates?

We stand behind our workmanship. Our standard product warranty is 5 years when properly operated within specified parameters. In the rare event of an issue, our engineering team provides root cause analysis and works to resolve it immediately. For ongoing production, we maintain complete traceability records tied to each batch.

Products
PRODUCTS DETAILS
High-Performance Custom Aluminum Liquid Cooling Plate for Energy Storage Battery Packs
MOQ: 100pcs
Price: Negotiable
Standard Packaging: Ply-Wood Box Specialized for Export
Delivery Period: 30 days
Payment Method: T/T,L/C
Supply Capacity: 2000pcs/day
Detail Information
Place of Origin
China
Brand Name
Trumony
Certification
ISO9001,IATF16949
Model Number
Trumony-05205
Process:
Brazing,CNC,
Shape:
Customize
Warranty:
1 Year
Surface Treatment:
Anodizing, Powder Coating
Minimum Order Quantity:
100pcs
Price:
Negotiable
Packaging Details:
Ply-Wood Box Specialized for Export
Delivery Time:
30 days
Payment Terms:
T/T,L/C
Supply Ability:
2000pcs/day
Highlight

custom aluminum liquid cooling plate

,

energy storage battery cooling plate

,

high-performance liquid cold plate

Product Description
Product Overview

Trumony's custom liquid cooling plates deliver superior thermal management for high-power applications. Engineered for battery energy storage systems, electric vehicle battery packs, and IGBT modules, our aluminum cold plates combine high thermal conductivity with low-pressure-drop flow channels. As a factory-direct manufacturer, we provide a true one-stop service: from collaborative design and rapid prototyping to mass production and rigorous testing. Every plate is fully customizable in dimensions, flow path configuration, surface plating, and connector type — ensuring an optimal fit for your specific thermal requirements. With proven reliability across North American and advanced Asian markets, our liquid cooling solutions help you extend component lifespan, maintain stable operating temperatures, and maximize system efficiency.

Cause: Why Thermal Management Can’t Be an Afterthought

In high-density energy storage systems, EV traction batteries, and IGBT power modules, excessive heat is the primary enemy of performance and safety. When temperatures rise unchecked:

  • Battery life degrades significantly — a 10°C increase can halve cycle life.
  • Charging speed and usable capacity drop to protect cells.
  • IGBT modules suffer from thermal runaway, leading to catastrophic failure in inverters and motor drives.
  • Entire systems face derating, unexpected downtime, and even fire hazards.

Passive air cooling is no longer sufficient for today’s power densities. As voltages climb and fast charging becomes standard, the industry demands an efficient, reliable active cooling solution that can keep temperature differences between cells below 2°C. Liquid cooling, with its high heat transfer capacity, has become the preferred choice — but only if the cold plate is precisely engineered for the application.

Solution: Trumony Custom Liquid Cooling Plates

We address these thermal challenges head-on with fully customized liquid cooling plates built to your specifications. Our in-house engineering team works directly with you to design and produce plates that perfectly match your pack layout, heat load, and system pressure requirements. Whether you need a serpentine flow path for uniform battery cooling, a parallel channel design for low pressure drop, or a micro-channel structure for intense IGBT hotspots, we manufacture the right solution.

What sets us apart is our end-to-end capability: we control everything from raw aluminum material selection and CNC machining to vacuum brazing, helium leak testing, and final surface treatment — all under one factory roof. This one-stop service dramatically shortens lead times, guarantees quality, and allows us to deliver competitively priced liquid cooling plates with certifications ready for your target markets.

Specifications
Parameter Details
Parameter Specification
Base Material Aluminum 3003, 6061, 6063 (other alloys upon request)
Coolant Type Water-glycol mixture, dielectric fluids, refrigerants
Manufacturing Process CNC machining, vacuum brazing, friction stir welding (FSW)
Max Operating Pressure Up to 500 kPa (custom higher pressure designs available)
Leak Rate < 1×10⁻⁹ Pa·m³/s (helium mass spectrometer tested)
Surface Treatment Hard anodizing, electroless nickel plating, anti-corrosion coating, passivation
Thermal Conductivity ≥ 180 W/m·K (base material)
Temperature Uniformity ΔT ≤ 2°C across the plate surface
Customizable Options Dimensions, flow channel layout, inlet/outlet positions, fitting types, mounting holes
Certifications ISO 9001, IATF 16949 (for automotive), UL, RoHS, REACH compliant
Design Support CFD thermal simulation & flow analysis report provided before tooling
High-Performance Custom Aluminum Liquid Cooling Plate for Energy Storage Battery Packs 0
Application
  1. Battery Energy Storage Systems (BESS)
    From residential 48V stacks to utility-scale containerized storage, our liquid cooling plates maintain cell temperatures within the ideal 20–35°C window. They prevent thermal runaway propagation in densely packed 52S or similar high-voltage modules, ensuring long cycle life and safety compliance for the North American and Asian grid storage markets.
  2. Electric Vehicle Battery Packs
    Designed for passenger EV packs, commercial vehicle batteries, and two/three-wheeler swappable packs. Our plates deliver the necessary cooling for fast-charging Li-ion cells, keeping inter-cell temperature difference well under 2°C to guarantee range, power, and 8-year warranties.
  3. IGBT & Power Module Cooling
    For traction inverters, industrial motor drives, wind turbine converters, and UPS systems. Our cold plates manage concentrated heat fluxes exceeding 100 W/cm², enabling compact IGBT stacks to run reliably without derating.
  4. Other High-Heat-Flux Electronics
    Server CPU/GPU liquid cooling, laser diode arrays, and medical imaging equipment where precise temperature control is critical.
How It Works

Liquid cooling plates work on a simple but highly effective principle: a coolant fluid, typically a water-glycol mixture, is circulated through an internal network of channels machined directly into an aluminum plate. As the fluid passes through these channels, it absorbs heat conducted from the heat source mounted on the plate's surface — be it battery cells, an IGBT baseplate, or a DC-DC converter. The heated fluid is then pumped out to an external heat exchanger (radiator or chiller), where it releases the heat into the ambient environment. The cooled fluid recirculates back into the cold plate in a closed loop. Unlike air cooling, liquid’s significantly higher thermal capacity and density enable it to remove far more heat with a smaller footprint and at a lower acoustic noise level. Trumony’s optimized internal channel geometries — whether serpentine, parallel, or pin-fin — are designed using computational fluid dynamics (CFD) to balance heat transfer efficiency and pressure drop, ensuring your pump system doesn’t work harder than necessary.

How To Choose Your Liquid Cooling Plate

Selecting the right liquid cooling plate is critical to system performance. Work with our engineers by considering these factors:

  1. Heat Load (W): Calculate the total amount of heat your battery pack or IGBT generates. This determines the required plate size and coolant flow rate.
  2. Temperature Uniformity Needs: For batteries, specify the maximum allowed temperature difference between the hottest and coolest cell. We will design the flow path to meet it.
  3. Space & Integration Constraints: Share your 3D model or dimensional drawing. Our design team will nest the cold plate into your available volume and position inlet/outlet fittings for a perfect mechanical fit.
  4. Coolant System Parameters: Tell us your system’s available pump pressure and flow rate. We optimize the internal channel design for low pressure drop to reduce pump energy consumption.
  5. Environmental & Compatibility Factors: Choose surface treatment (e.g., electroless nickel plating for corrosion resistance, hard anodizing for electrical insulation) based on your coolant chemistry and operating environment.
  6. Volume & Certification Needs: Confirm your projected annual quantities and target market certifications. As a factory, we guide you to the most cost-effective manufacturing method and ensure full compliance.

Simply send us your requirements; our one-stop service team returns a detailed proposal including CFD simulation results, a 3D printable prototype sample, and a mass production plan — all within an industry-leading timeline.

FAQ
Q1: I don’t have a finalized design. Can you help from the concept stage?

Absolutely. That is the core of our one-stop service. Share your heat load, space envelope, and target thermal performance. Our engineers will propose an initial flow channel design, run CFD simulations for your approval, and then move to prototype. We guide you from idea to serial production.

Q2: What is the minimum order quantity (MOQ) for custom liquid cooling plates?

We have no fixed MOQ for the prototype and NPI (New Product Introduction) stage. For mass production, we work flexibly with your volumes. As a factory serving global clients, we comfortably handle everything from small pilot runs to millions of pieces annually.

Q3: How do you ensure zero leaks in a water-cooled battery pack?

Quality is built in from the start. We use vacuum brazing for high-integrity joints and 100% test every single plate with a helium mass spectrometer, achieving leak rates tighter than 1×10⁻⁹ Pa·m³/s. Additionally, we conduct pressure cycling and thermal shock tests on pre-production samples validated according to customer durability requirements.

Q4: Do you hold certifications for the North American and Asian markets?

Yes. Our manufacturing is certified to ISO 9001 and IATF 16949. Our materials and components comply with RoHS, REACH, and UL standards as required by your product. We are also experienced in supporting customers through final system-level UL 9540A or UN 38.3 certification by providing detailed design and material documentation.

Q5: What kind of warranty and after-sales support do you offer for your cooling plates?

We stand behind our workmanship. Our standard product warranty is 5 years when properly operated within specified parameters. In the rare event of an issue, our engineering team provides root cause analysis and works to resolve it immediately. For ongoing production, we maintain complete traceability records tied to each batch.