Heat Dissipation & Temperature Uniformity
Defined contact faces and coolant channels support the intended heat-transfer path, helping battery and inverter assemblies meet their thermal design goals.
EV THERMAL MANAGEMENT MANUFACTURING
Custom CNC machined cooling plates, manifolds and thermal interfaces follow your engineering drawings, helping your team integrate reliable liquid cooling into electric vehicle battery and inverter assemblies.
Bring your EV cooling design closer to production.
Request a QuoteEV THERMAL MANAGEMENT CHALLENGES
Controlled contact surfaces, sealing features and assembly dimensions translate your thermal design into manufacturable components, helping reduce integration risks before production.
Defined contact faces and coolant channels support the intended heat-transfer path, helping battery and inverter assemblies meet their thermal design goals.
Drawing-controlled joints, ports and sealing surfaces support specified verification methods, giving your team measurable acceptance criteria.
Accurate mounting and locating features help parts fit within tight packaging spaces, reducing avoidable assembly adjustments.
Material and process review balances structural needs with machining complexity, helping you evaluate practical production options.
Reliable EV thermal management starts with controlled manufacturing.
Discuss Your Cooling ChallengesEV COOLING COMPONENTS
Drawing-based metal components coordinate heat transfer, coolant routing and mechanical fit, simplifying integration into your EV cooling assembly.
Machined channels, fluid ports and mounting interfaces follow your battery pack layout to support controlled coolant routing.
Thermal contact faces and mounting features match the power module interface, helping your inverter cold plate integrate consistently.
Specified ports, threads and internal passages bring coolant distribution into a compact, assembly-ready component.
Custom brackets, covers and connector blocks preserve the mechanical interfaces needed for repeatable installation.
Share the component geometry, material and quantities for manufacturing review.
Review Your Custom ComponentsPRODUCT OVERVIEW
Internal coolant passages carry heat away from battery modules and power electronics. Custom contact surfaces and connections align this cooling function with your assembly requirements.
A machined base and integrated tubing support specified coolant paths, helping package battery liquid cooling around the available space.
Machined thermal bases and mounting holes connect the power module to the cooling structure, supporting consistent assembly fit.
Custom covers, mounting faces and connection features coordinate the mechanical interfaces of an EV cooling assembly.
Match the cooling structure to your engineering requirements.
Discuss Your Custom Cooling PartPRECISION CNC MACHINING
Drawing-defined machining controls the features that connect your cooling concept to the finished assembly, helping maintain dimensional consistency from samples to production.
JBT reviews custom aluminum, copper and other metal components for machining feasibility. Cooling channels, sealing faces, fluid ports and mounting locations are considered together so manufacturing decisions support the complete part.
Agreed inspection criteria give your team a clear basis for evaluating prototypes and repeat orders.
Manufacturing reference image supplied in the project brief.
Controlled holes and locating features help preserve the intended assembly fit.
Specified finish and flatness align contact and sealing faces with the interface requirements.
Accessible pockets, ports and passages retain your approved cooling geometry.
Defined machining and inspection plans support repeatable component acceptance.
Resolve critical machining features before releasing your next drawing.
Discuss CNC ManufacturingEV COOLING MANUFACTURING PROCESSES
Compare machining and joining routes against your material, channel geometry and sealing requirements to establish a practical manufacturing plan.
Milling, drilling and tapping create defined channels and interfaces, supporting custom geometry and repeatable assembly.
A solid-state joining route can enclose suitable aluminum channel structures. Design and process suitability are confirmed during engineering review.
Compatible multi-piece structures can be evaluated for bonded internal assemblies, helping realize channel arrangements that require joined construction.
Formed tubing integrates with a machined base to create a defined coolant route, providing another option for suitable cooling layouts.
Process reference images from the supplied brief. Process availability, tooling and validation are confirmed for each project.
Choose the manufacturing route around the part requirements.
Review Your Process OptionsCUSTOM MANUFACTURING SUPPORT
Coordinated component and joining requirements help your team move from individual parts to cooling structures ready for mechanical integration.
Exploded assembly reference; final scope follows the approved customer design.
Bases, covers, brackets and fittings follow customer drawings, preserving the interfaces needed for assembly.
Suitable FSW, brazed or tube-integrated designs are reviewed for material compatibility and sealing needs before production.
Mechanical assembly requirements bring plates, manifolds and fittings into one defined scope, simplifying technical coordination.
Define the parts, joining steps and assembly interfaces in one review.
Discuss Your Assembly RequirementsMATERIALS & SURFACE TREATMENTS
Compare thermal performance, weight and coolant compatibility to select materials that suit both the operating environment and the manufacturing route.
Low weight and machining flexibility make aluminum a common option for an electric vehicle battery cold plate and related structures.
High thermal conductivity supports selected power electronic interfaces when the heat-transfer requirement justifies additional weight and cost.
Selected grades serve fittings and connectors where specified corrosion or mechanical properties support the coolant-loop design.
Review anodizing, protective coatings and precision finishing against coolant chemistry, galvanic corrosion, sealing faces and electrical requirements. A coordinated specification helps avoid incompatible material and surface combinations.
Align the alloy, coolant and finish before production begins.
Discuss Material RequirementsENGINEERING & DFM REVIEW
Review thermal, hydraulic and mechanical requirements together so the manufactured component fits the intended cooling system.
Reference geometry only. All numerical requirements follow the approved project drawing.
Define critical holes, locations and fits to support predictable assembly.
Specify finish and flatness for the battery or power module interface.
Review passage size, wall thickness and machining access before process selection.
Provide flow conditions and hydraulic targets to inform geometry review.
Agree joints, operating conditions and acceptance criteria for applicable tests.
Match alloy, coolant and temperature conditions to the component requirements.
Early DFM review identifies tool access, joining constraints and tolerance interactions. Resolving these details before prototyping gives your team a clearer basis for cost, inspection and production decisions.
Make your drawing requirements the starting point for a practical production plan.
Submit Your Technical DrawingsQUALITY CONTROL & VALIDATION
Drawing-based inspection and agreed test conditions connect the finished part to measurable acceptance requirements, supporting your incoming quality review.
Check critical dimensions, mounting features and machined faces against approved drawings.
Confirm a suitable test method and acceptance criteria for the specified sealed structure.
Review working and proof pressure requirements before agreeing applicable test arrangements.
Define dimensional records and material documentation so delivery includes the agreed evidence.
Inspection reference from the supplied brief; methods and reports are agreed per project.
Confirm test methods, conditions and reporting requirements before production.
Discuss Your Quality RequirementsOUR MANUFACTURING CAPABILITIES
CNC machining, suitable joining routes and drawing-based inspection coordinate the features your EV cooling assembly depends on.
Machining review covers custom plate bases, covers and manifolds, helping align the geometry with practical production methods.
Joining and surface requirements are reviewed around the approved design, supporting a defined component scope.
Critical dimensions and agreed records support consistent part acceptance from samples through repeat production.
Workshop and inspection references supplied in the brief; these images are not verified photographs of JBT facilities.
Discuss drawing requirements directly to reduce technical ambiguity.
Review metal grades and custom geometry before committing to a process.
Agree inspection criteria and required documentation before production.
Coordinate DFM, prototypes and production around the same specification.
Build a manufacturing scope around your EV cooling drawings.
Discuss Manufacturing CapabilitiesMANUFACTURING EXAMPLES
Typical component scenarios show how geometry, material and inspection requirements shape the manufacturing approach.
TYPICAL APPLICATION 01
Typical material: Aluminum alloy
Manufacturing requirements
Channel geometry, plate dimensions, coolant ports and sealing features.
Manufacturing focus
Coordinate machining and suitable joining with the required dimensional and leak verification.
TYPICAL APPLICATION 02
Typical material: Aluminum or copper
Manufacturing requirements
Thermal contact surfaces, mounting locations and coolant passages.
Manufacturing focus
Control contact faces and mounting geometry to support repeatable power-module assembly.
TYPICAL APPLICATION 03
Typical material: Aluminum alloy
Manufacturing requirements
Multiple ports, internal passages, hole positioning and thread interfaces.
Manufacturing focus
Review drilling access, threads and inspection requirements to simplify coolant-loop installation.
Representative manufacturing scenarios; not documented customer projects. Images are supplied references.
Looking for a battery cooling 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.
Yes. Custom inverter cold plates can be reviewed for thermal contact surfaces, coolant passages and mounting features. Drawing-based manufacturing helps align the power electronics cold plate with your assembly requirements.
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 EV battery 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 EV battery or EV battery 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 EV battery liquid cooling components?
Contact the Manufacturing Team