High Heat Density
Concentrated GPU and CPU loads demand effective contact surfaces. Precision machining helps preserve the interfaces that carry heat into coolant.
PRECISION THERMAL MANUFACTURING
Custom CNC machined cold plates, manifolds and thermal components bring coolant close to high-power processors, helping your team integrate liquid cooling into high-density computing systems.
Turn your cooling drawings into production-ready components.
Request a QuoteTHE CHALLENGES
Higher compute density puts more demand on heat transfer, coolant routing and sealing. Drawing-defined components give your engineering team a measurable basis for addressing these risks.
Concentrated GPU and CPU loads demand effective contact surfaces. Precision machining helps preserve the interfaces that carry heat into coolant.
Channel geometry affects hydraulic resistance. Controlled passages help maintain your approved flow design and simplify system integration.
Joints, grooves and ports need coordinated dimensions. Defined sealing features support compatible assembly and project-specific validation.
Mounting and contact features must fit consistently. Agreed tolerances and inspection criteria help reduce variation between batches.
Reliable liquid cooling starts with controlled component manufacturing.
Discuss Your Cooling ChallengesCORE COOLING COMPONENTS
Direct-to-chip cooling depends on coordinated metal interfaces. Drawing-based components bring heat transfer, fluid distribution and mechanical fit into the same manufacturing plan.
Representative direct-to-chip cold plate reference.
A GPU liquid cooling plate or CPU cold plate places coolant close to the processor. Machined contact faces and mounting features support consistent thermal interface assembly.
Custom ports and internal passages distribute coolant to multiple circuits, helping your team consolidate fluid routing within the server envelope.
Metal bases, fins and thermal interfaces follow your approved geometry, supporting contact and packaging requirements around server electronics.
Connection blocks, brackets and mounting plates coordinate fittings and fasteners, helping the liquid cooling assembly fit its surrounding hardware.
Coordinate every machined interface around your server cooling design.
Review Your Component DrawingsPRODUCT OVERVIEW
Internal passages carry heat away from high-power devices. JBT reviews your geometry, material and joining needs to build custom components that fit the intended cooling architecture.
Machined contact surfaces, channels and mounting features connect the heat source to circulating coolant. Drawing-defined interfaces help integrate a direct-to-chip cold plate into your assembly.
Multi-port distribution bodies combine fluid branches in one machined component, reducing the number of separate routing interfaces your system needs.
Joined cooling structures combine bases, covers and connection features. A coordinated manufacturing route helps preserve fit between the parts.
Choose a component scope that matches your thermal and assembly requirements.
Discuss Your Custom DesignPRECISION CNC MACHINING
Controlled channels, contact faces and mounting features preserve the interfaces your cooling design depends on. JBT reviews machining requirements for aluminum, copper and other specified metals to help your parts fit and assemble consistently.
Complex geometry is reviewed against tool access, material and inspection needs before the manufacturing scope is confirmed.
Machining reference from the supplied brief.
Drawing-defined mounting holes and connection features support compatible mechanical interfaces, reducing uncertainty at assembly.
Specified contact and sealing surfaces create a measurable basis for finishing and inspection, supporting consistent mating conditions.
Machining access is reviewed for pockets, passages and fluid features, helping turn the intended flow layout into manufacturable geometry.
Agreed process and inspection requirements carry critical features across repeat orders, helping your team assess batch quality.
Resolve the features that matter most to thermal contact and assembly fit.
Send Your CAD DrawingsMANUFACTURING PROCESSES
Geometry, alloy and validation needs determine the production route. Reviewing machining and joining together helps avoid a process choice that conflicts with the cooling plate design.
Milling, drilling and tapping establish cooling channels, ports and sealing faces. Coordinated machining keeps fluid and assembly features aligned with the drawing.
Suitable multi-piece metal structures can be reviewed for brazing. Material and joint design determine whether this route can support the intended sealed assembly.
Selected aluminum structures can be evaluated for solid-state joining. Tool access and joint geometry guide suitability for enclosing coolant passages.
Specified finishing, cleaning and assembly preparation address mating surfaces and component readiness, helping the parts reach integration in the required condition.
Joining availability, material compatibility, production arrangements and validation requirements are confirmed per project. Equipment photographs are process references.
Match the manufacturing route to your cold plate structure.
Discuss Your Process RequirementsCUSTOM MANUFACTURING SUPPORT
Start with individual parts or a coordinated assembly scope. Customer-defined interfaces keep the manufacturing work connected to your cooling system architecture.
Representative cooling component and assembly structures.
Plates, covers, bases and connection blocks are machined to defined dimensions, making the components easier to coordinate within your assembly.
Compatible machining and joining routes are reviewed together to enclose coolant passages while preserving critical mounting and sealing interfaces.
Cold plates, manifolds and related hardware follow customer-supplied assembly requirements, helping align component fit before system integration.
Define the manufacturing scope around your parts and assembly drawings.
Discuss Your Assembly RequirementsMATERIALS & SURFACE FINISHES
Conductivity, weight and coolant chemistry all influence the material specification. Review the complete fluid loop to select metals and finishes that suit the operating conditions.
Copper spreads heat efficiently around concentrated loads. A specified grade and surface condition help define cold plate bases and thermal contact areas.
Aluminum combines low weight with machining flexibility. Drawing-based plates and manifolds help meet installation and packaging constraints.
Selected grades support fittings and connection hardware where corrosion resistance is needed, helping tailor the fluid interfaces to the application.
Anodizing, protective coatings and precision finishing can be evaluated against the base alloy and required interfaces. Coolant chemistry, mixed-metal contact, sealing faces and coating dimensions guide selection, helping reduce compatibility problems at the system level.
Match the alloy and surface treatment to your complete cooling loop.
Discuss Material SelectionENGINEERING & DFM REVIEW
Part geometry, fluid requirements and assembly interfaces must be evaluated together. An early drawing review helps align the cooling design with a practical production route.
Generic structure reference; not a customer drawing or a JBT performance result.
Define critical sizes and mounting positions so machining and inspection support the intended fit.
Specify contact finish and flatness to establish measurable thermal interface requirements.
Review wall thickness, passage sizes and tool access to identify manufacturing constraints early.
Supply design flow, pressure loss targets and operating pressure to preserve the approved fluid geometry.
Coordinate joining surfaces, grooves and ports to make assembly and validation requirements clear.
Specify alloy, coolant and operating conditions to guide compatible process and finish selection.
Machining access, material selection, joining and critical dimensions are reviewed before production. Clear decisions give engineering and purchasing a shared basis for comparing manufacturing options.
Share CAD files and the requirements that determine component acceptance.
Submit Your CAD DrawingQUALITY ASSURANCE
An agreed inspection plan connects drawing requirements to component acceptance. Define dimensional, sealing and pressure criteria before production so the results answer your integration needs.
Check agreed contact features, mounting locations and machined interfaces to support consistent assembly fit.
Define the method, medium and allowable leakage for the application, creating a clear basis for sealing verification.
Specify test pressure and acceptance requirements for suitable structures to evaluate the agreed pressure integrity criteria.
Identify required records during quotation so delivered reports support your incoming component review.
Inspection reference photograph; equipment ownership and project test availability require confirmation.
Inspection methods, test arrangements, acceptance limits and reporting scope are confirmed per project. No certification or performance result is implied.
Align the quality plan with your drawing and purchase specification.
Discuss Your Quality RequirementsMANUFACTURING CAPABILITIES
CNC milling, turning and inspection planning address different parts of the same assembly. Coordinating these requirements helps your team source custom thermal components with a defined manufacturing scope.
Machining setups are reviewed against part geometry and critical interfaces, helping establish a practical route for custom metal components.
Cylindrical features, fittings and connection parts need coordinated dimensions to support compatible fluid and mechanical connections.
Drawing-based acceptance criteria guide measurements and documentation, helping your incoming review focus on the features that matter.
Manufacturing reference photographs supplied in the brief; these are not presented as verified JBT facility photographs.
Discuss drawings and process constraints together to reduce gaps between engineering intent and the quotation.
Review aluminum, copper and selected steels around the component function and approved specification.
Agree critical features and reporting needs so inspection work supports component acceptance.
Confirm technical scope, quantities and delivery expectations before placing a production order.
Bring your drawings and purchasing requirements into one manufacturing review.
Discuss Your Manufacturing ProjectMANUFACTURING EXAMPLES
Compare typical component requirements to your own design. These representative examples show how manufacturing decisions connect geometry with practical assembly needs.
TYPICAL COMPONENT 01
Manufacturing requirements
Precision contact faces, internal passages, sealing geometry and mounting features.
Manufacturing focus
Review machining access and a compatible joining route to preserve the required thermal and assembly interfaces.
TYPICAL COMPONENT 02
Manufacturing requirements
Multiple ports, intersecting fluid passages and fitting connection surfaces.
Manufacturing focus
Coordinate port positioning, thread requirements and cleaning access to simplify coolant-loop installation.
TYPICAL COMPONENT 03
Manufacturing requirements
Custom bases, mounting features, covers and structural interfaces.
Manufacturing focus
Review tolerance compatibility and finishing requirements so related components fit within the approved assembly.
Representative component images and manufacturing scenarios; not documented customer projects.
Looking for a GPU cold plate manufacturer for a similar drawing-based project?
Discuss a Similar ProjectOUR MANUFACTURING PROCESS
Defined review points carry your requirements through quotation, samples and repeat production, helping engineering and purchasing work from the same approved specification.
STEP 01
Share CAD, materials and quantities to establish a clear manufacturing scope.
STEP 02
Resolve tool access and critical features before production decisions.
STEP 03
Agree the technical scope, price and lead time before placing the order.
STEP 04
Evaluate sample dimensions and assembly fit where the project requires it.
STEP 05
Review agreed measurements before authorizing repeat production.
STEP 06
Coordinate repeat orders, inspection and protective packaging for shipment.
Ready to turn your component drawings into a manufacturing plan?
Submit Your RFQFREQUENTLY ASKED QUESTIONS
Prepare your next RFQ with clear answers on drawings, materials and quality requirements. Defined inputs help make the manufacturing review more useful.
Yes. JBT reviews customer-supplied 2D/3D drawings for custom liquid cold plate manufacturing. Geometry, material, tolerances and production scope are confirmed before quotation, giving your team a clear basis for ordering.
Copper, aluminum and selected stainless steels serve different component functions. Compare conductivity, weight, coolant compatibility and joining needs to define a suitable specification for the complete cooling loop.
CNC machined cooling channels can be evaluated for tool access, wall thickness and passage geometry. Early review identifies production constraints before the design is released for manufacturing.
Vacuum brazed cold plates and friction stir welded structures can be reviewed as manufacturing routes. Availability and suitability depend on the alloy, geometry, validation needs and confirmed production arrangements.
Prototype and repeat production inquiries are reviewed against the component design and quantities. Sample approval helps align dimensional and assembly expectations before recurring orders.
Dimensional inspection and documentation are defined against the drawing. Leak testing, pressure testing and reporting arrangements require project-specific agreement to make the acceptance criteria measurable.
Provide CAD files, material, quantity, finish, tolerances and sealing requirements. Include coolant and operating conditions for each data center cold plate or manifold so the manufacturing review addresses the intended application.
Confidentiality arrangements can be discussed before technical files are exchanged. Contact the team to review your NDA requirements and agree the next step for a drawing-based inquiry.
Have a drawing-specific question before requesting a quotation?
Ask Our Manufacturing TeamSTART YOUR CUSTOM PROJECT
Precision cold plates, manifolds and machined interfaces follow your engineering requirements. Share the drawings and quantities to compare manufacturing options for your AI server or data center liquid cooling assembly.
Drawing-defined parts match the required geometry and interfaces, helping your assembly fit the intended system.
DFM discussions identify machining and joining constraints early, giving your team a clearer route to production.
Agreed inspection criteria connect the drawing to acceptance, supporting a consistent incoming review.
Prepare your project details for a drawing-based manufacturing review.
Ready to discuss your data center liquid cooling components?
Contact the Manufacturing Team