Efficient Heat Transfer
Machined contact surfaces and internal channels create a short path from heat sources to coolant, helping manage concentrated thermal loads.
CUSTOM LIQUID COOLING MODULE MANUFACTURER
From CNC-machined cold plates and manifolds to joining, sealing and assembly, turn your drawings into cooling components that fit your equipment.
Bring your next cooling assembly into production.
Request a Custom QuoteUNDERSTANDING LIQUID COOLING MODULES
A liquid cooling module combines conductive metal components, coolant passages and fluid connections in one integrated assembly. This brings heat removal closer to high-power electronics while simplifying mechanical integration.
Illustrative plate structure; the complete module follows your approved design.
Heat passes through the metal contact surface into coolant flowing through internal channels. The warmed fluid carries energy to an external cooling system, supporting continuous heat removal.
Accurate contact surfaces, aligned ports and controlled sealing help the assembly fit and function as intended. Drawing-based machining keeps these requirements connected from the first component to final inspection.
Define the cooling structure that fits your equipment.
Discuss Your RequirementsENGINEERED FOR DEMANDING APPLICATIONS
Custom flow paths and precision interfaces connect thermal performance with practical installation. Build the features your equipment needs into a coordinated cooling assembly.
Machined contact surfaces and internal channels create a short path from heat sources to coolant, helping manage concentrated thermal loads.
Drawing-defined passages and manifold layouts distribute coolant to selected components, helping balance cooling coverage and pressure loss.
Combine cooling and mounting features within the available envelope, leaving more space for surrounding electronics and connections.
Compatible joints and controlled seal installation support fluid integrity, helping your team address leakage risks before equipment integration.
Tailor dimensions, materials, ports and mounting points to your drawings, reducing the need to adapt your equipment around a standard part.
Defined machining and inspection requirements create a repeatable basis for sample approval and subsequent production.
Specify the features that matter to your cooling project.
Review Your Module RequirementsPRECISION-ENGINEERED COMPONENTS
A cold plate cooling module combines thermal, hydraulic and mechanical interfaces. Reviewing these components together helps your assembly fit the equipment and connect to the external coolant loop.
Assembly reference showing component relationships; project configurations vary.
A machined conductive base collects heat from components and transfers it toward the coolant.
Defined passages guide coolant beneath the heat sources, adapting the flow path to the approved design.
Machined blocks route fluid between cooling branches, consolidating distribution into a compact interface.
Specified ports and fittings align the assembly with external plumbing, simplifying installation.
Compatible seals or joining interfaces contain coolant under the agreed operating conditions.
Locating holes, threads and supports align the module with surrounding hardware for repeatable installation.
Coordinate every interface before manufacturing begins.
Discuss Your Module ComponentsPRECISION CNC MACHINING
Drawing-based machining aligns coolant channels, contact surfaces and assembly interfaces. Defined tolerances help each component fit the next stage of joining and installation.
JBT supports CNC-machined cooling modules through the manufacture of cold plate bases, manifold blocks, connection interfaces and mounting structures. Process planning considers tool access and critical surfaces together, helping maintain compatibility across the finished assembly.
Machine complex profiles and multiple interfaces to the approved geometry, helping consolidate features within the available space.
Produce engineered flow paths with suitable tooling access, preserving the channel geometry defined by your design.
Plan operations around specified flatness and roughness to support consistent thermal contact.
Coordinate ports, threads and locating features so components align during joining and installation.
Send your component drawings for a machining feasibility review.
Review CNC Machining RequirementsADVANCED JOINING & ASSEMBLY
Select a joining and sealing route around the alloy, coolant and operating conditions. Coordinated process planning helps maintain fluid integrity across your liquid cooling assembly.
Compatible components and filler can form metallurgical joints around enclosed channels. Joint clearance, cleanliness and the thermal cycle are reviewed to establish a suitable process.
Solid-state joining can close suitable aluminum plate structures without melting the parent material. Tool access and weld-path planning support a repeatable sealing route.
Drawing-defined fitting, seal and fastener installation brings components together in a controlled sequence, helping maintain alignment and assembly integrity.
Process suitability and in-house or partner scope are confirmed during quotation. Reference imagery illustrates the joining and assembly routes.
Match the joining process to your material and operating requirements.
Discuss Joining & SealingMATERIALS & SURFACE FINISHING
Material and finish choices affect heat conduction, corrosion behavior and assembly fit. Review them together with coolant compatibility so each component supports the intended operating environment.
Low weight, useful thermal conductivity and machinability make suitable alloys practical for plates, manifolds and structural features.
High thermal conductivity supports selected applications with concentrated heat loads, where mass and processing requirements are acceptable.
Suitable grades can serve fittings and structural interfaces. Coolant chemistry and mixed-metal compatibility guide selection.
Selected aluminum surfaces can receive a protective finish. Coolant-contact areas and thermal interfaces need a separate coating review.
An appropriate plated layer can protect selected metals, with adhesion, corrosion conditions and dimensional effects included in the specification.
Controlled finishing establishes specified roughness and flatness, helping the contact surface and sealing interfaces meet your drawing requirements.
Review thermal conductivity, coolant chemistry, corrosion resistance, strength, weight, joining compatibility and cost before specifying materials.
Find a material and finish combination suited to your cooling loop.
Discuss Material SelectionTHERMAL & FLUID PERFORMANCE
Heat load, coolant conditions and pump capacity define the design targets for an integrated liquid cooling module. Clear inputs help connect thermal intent with a practical manufacturing plan.
Define the target under specified operating conditions. Channel and contact-surface requirements can then be reviewed against the intended heat-transfer performance.
Provide the required flow and fluid properties so channel dimensions and connections can be reviewed in the context of the complete loop.
State the allowable hydraulic loss at the design flow. This helps coordinate channels, manifolds and ports with available pumping capacity.
Identify total dissipation and heat-source locations to focus cooling features beneath the areas with the greatest thermal demand.
Specify contact-surface flatness and roughness to support the intended thermal interface and assembly clamping arrangement.
Coordinate envelope, mounting points, port positions and tolerances so the thermal management module fits the surrounding equipment.
For a useful review, include heat load, component dimensions, temperature range, coolant type, flow rate, pressure limits and available drawings.
Translate your thermal and hydraulic targets into manufacturing requirements.
Review Your Performance InputsQUALITY CONTROL & VALIDATION
Defined inspection methods connect drawing requirements with measurable acceptance criteria. Agree the scope before production so engineering and purchasing can evaluate the same finished assembly.
Check joints, ports and sealing interfaces using an agreed method and leakage limit, establishing a clear basis for fluid-integrity acceptance.
Specify test pressure, duration and conditions to evaluate the assembly pressure boundary against the project quality plan.
Measure critical dimensions, hole locations, flatness and interfaces against approved drawings to support mechanical fit.
Agree operating conditions and test arrangements where performance evaluation is required, so results can be compared meaningfully.
Define required records and reports before production to support your incoming inspection and technical review.
Check the specified material and relevant documentation before machining.
Evaluate critical features while production operations remain accessible.
Review connections, seals and alignment against the approved assembly plan.
Complete the agreed dimensional and fluid-integrity checks before shipment.
Define acceptance criteria before your components enter production.
Discuss Your Inspection PlanAPPLICATIONS & INDUSTRIES
Application-specific interfaces help cooling assemblies fit equipment with concentrated heat loads. JBT supports drawing-based manufacturing for electronic and industrial thermal management projects.
Cooling components and fluid distribution interfaces support high-power processor and GPU assemblies within tightly controlled server layouts.
Custom plates and connections follow battery and inverter packaging requirements, helping integrate cooling around critical electrical components.
Precision contact surfaces and fluid interfaces support equipment cooling requirements where mechanical compatibility and controlled temperatures matter.
Custom coolant paths and mounting features align cooling assemblies with high-power laser components and industrial machinery.
Drawing-defined metal components support selected diagnostic and medical equipment projects with specified quality and documentation requirements.
Application-specific cooling components fit power-conversion and energy storage equipment, supporting the thermal architecture defined by your design.
Need a cooling module for a different application? Share your drawings and operating requirements.
Discuss Your ApplicationCUSTOM DESIGN & DFM SUPPORT
A manufacturing review connects your CAD design with machining access, joining requirements and assembly tolerances. Resolve these details early to build a clearer route from prototype to production.
Drawing-defined envelopes and profiles align the module with your equipment layout.
Review machining access and manifold geometry around your approved flow path.
Assess specified alloys against machining, coolant and joining requirements.
Review brazing, FSW and mechanical sealing for the actual component geometry.
Coordinate holes, threads and fluid ports to simplify installation and routing.
Use sample evaluation and design feedback to establish requirements for repeat orders.
Have a custom liquid cooling module drawing? Share your materials, tolerances and assembly requirements.
Submit Your DrawingsFROM DRAWING TO FINISHED ASSEMBLY
A coordinated workflow keeps component geometry, joining decisions and inspection requirements connected. Defined review points help your team move from drawings to a finished cooling assembly.
Share drawings, materials, operating conditions and critical tolerances to establish a clear manufacturing scope.
Review tooling access, joining routes and assembly challenges before production decisions become fixed.
Produce bases, manifolds, fluid ports and mounting features to the approved component drawings.
Follow the agreed joining route and assembly sequence to integrate fittings, seals and cooling components.
Evaluate dimensions and agreed sealing or pressure criteria against the project acceptance requirements.
Protect finished interfaces and include agreed inspection documents to support incoming review at your facility.
From precision components to integrated cooling assemblies: accuracy and inspection support every stage.
Plan your next manufacturing project from the drawing stage.
Start a Project ReviewYOUR PRECISION MANUFACTURING PARTNER
Coordinate machining, metal processing and assembly through one project conversation. A drawing-led approach keeps your technical requirements visible from quotation through inspection.
Manufacturing reference image supplied in the page brief.
Discuss geometry, quality requirements and production scope directly with the manufacturing team to clarify decisions earlier.
Coordinate bases, manifolds and connection features so separate component requirements support the same assembly.
Use drawing reviews and manufacturing feedback to address tooling and integration issues before order approval.
Agree dimensional, sealing and inspection requirements to create a shared basis for accepting the finished module.
Connect sample evaluation with repeat-order requirements, helping preserve approved component details.
Coordinate drawings, inspection records and shipment requirements for overseas OEM procurement teams.
Choose a manufacturing approach aligned with your drawings and quality requirements.
Discuss Your OEM ProjectFREQUENTLY ASKED QUESTIONS
Review the inputs that shape a custom manufacturing quotation. Clear drawings, material specifications and inspection requirements help your project move forward with fewer open questions.
Yes. Share your 2D drawings, 3D CAD and technical specifications. The review establishes machining, joining and assembly scope so the quotation reflects your actual design.
Specified aluminum alloys, copper and applicable brass or stainless steel components can be reviewed. Suitability depends on coolant compatibility, joining method, geometry and operating conditions.
These processes can be evaluated for suitable designs. Material compatibility, joint geometry, tooling access and in-house or partner process arrangements are confirmed during quotation.
Prototype and repeat-production requirements can be reviewed. Quantity, material, process complexity and inspection scope determine the proposed manufacturing plan.
Dimensional inspection, leak testing, pressure testing and project-specific flow or thermal evaluation can be discussed. Methods, conditions and acceptance criteria must be agreed before production.
Assembly scope can include specified plates, manifolds, fittings, seals and mounting hardware. Approved drawings and assembly instructions define the required interfaces and checks.
Provide CAD files, material and finish specifications, quantity, critical tolerances and operating conditions. Include joining requirements, test criteria and target delivery timing where available.
Packaging is selected around component size, finished surfaces, ports and shipment requirements. Agree protective measures and required inspection documentation with the order.
Have additional technical questions about machining, materials or assembly?
Contact Our TeamSTART YOUR CUSTOM COOLING PROJECT
Send JBT your drawings and technical requirements. A review of materials, critical tolerances and assembly details establishes the manufacturing scope for a project-specific quotation.
Use your 2D or 3D drawings to define the component geometry and manufacturing requirements.
Discuss machining, joining and assembly options before the production plan is confirmed.
Agree dimensional, sealing and test requirements to align technical approval with procurement.
Share your drawings and project requirements with our team.
Ready to discuss your liquid cooling assembly?
Contact Our Manufacturing Team