Injection Molding
Tooling and molding for your repeat plastic parts.
YOUR INTERFACES · YOUR CONDITIONS · YOUR ACCEPTANCE
Inverter Cooling
for Your Loss Map, Module Layout & Installed Conditions
Define your inverter cooling component around the actual heat losses, module layout and available airflow or coolant. Review the shared baseplate, mounting datums, contact stack and delivered manufacturing scope before approving the sample.
Illustrative component concept
Drawing
Critical geometry & interfaces
Materials
Grades, condition & compatibility
Interfaces
Defined route & final state
Evidence
Agreed methods & records
Start with Your Loss Map and Installed Interfaces
Define the heat-source layout, contact plane, installation and sample evidence together.
- Map losses and selected module instructions
- Define installed airflow or coolant conditions
- Review contact, mounting and coolant or airflow
- Agree component and platform acceptance separately
- Confirm the sample and acceptance evidence
Loss map and operating cycle
Share the loss distribution across your power devices and other heat sources, switching conditions, duty cycle and temperature limits. Define the validation owner and the installed operating cases, including sustained load and relevant transients.
Module layout and mounting
Your inverter cooling mounting interface should identify exact module part numbers, contact footprints, TIM, electrical isolation responsibility and fasteners. Define inverter cold plate mounting holes, datums, adjacent keep-outs and service access on the controlled drawing.
Air or coolant boundary
For an air-cooled part, specify available airflow and the enclosure. For a liquid-cooled part, state fluid, inlet temperature, flow and allowed inverter cooling plate pressure drop at named measurement points. Mark which fittings, seals and brackets are supplied.
Quote and sample evidence
When selecting an inverter cold plate manufacturer, compare the supplied part boundary and evidence against your drawing. Your custom inverter cold plate quote should identify material, manufacturing route, final surface state, quantities and dimensional, leak and separate performance checks.
Illustrative engineering concepts
Compare 4 Cooling Component Routes for Your Inverter
Choose a route against the actual module and installed conditions. These concepts do not establish package compatibility, an operating power range or complete converter qualification.
Air-Cooled Heat Sinks
Review available airflow, fin direction, base contact and enclosure clearance.
Review this cooling scope →
Liquid Cold Plates
Define heat-source map, coolant, ports, contact lands and sample checks.
Review this cooling scope →
Machined Contact Interfaces
Review copper or aluminum geometry, mounting datums and final surface state.
Review this cooling scope →
Defined Component Assemblies
List mounting hardware, selected fittings, brackets and delivered records.
Review this cooling scope →Illustrative engineering concepts
Choose Your Inverter Cooling Route from the Loss Map
HEAT MAP & INTERFACES↓COMPONENTS & CONNECTIONS↓SAMPLE & AGREED CHECKS↓APPROVED FINISHED PART
For inverter liquid cooling, share the heat-source locations, dissipated losses, fluid, inlet temperature and flow allowance. An inverter heat sink prototype needs the installed airflow, enclosure clearances and fin direction. Keep inverter cooling thermal resistance tied to named temperature nodes and the specified configuration; output power alone does not define the cooling requirement.
- Define the supplied parts, material and connection boundary.
- Review your critical interfaces in their final production state.
- Agree sample evidence before repeat-order release.
Reference context: SEW-EURODRIVE cold-plate installation — size 0 scope → · MathWorks inverter liquid-cooling model overview →. Follow the current documentation for your exact equipment and modules; no package-specific limits or simulation results are adopted here.
Compare Your Cold-Plate Material References
Compare bulk conduction and mass alongside your module contact stack, coolant, coatings and manufacturing route. These references are not finished inverter cooling tests or material substitution approvals.
Typical thermal conductivity
Hydro 6061-T6 at 25°C. KME Cu-ETP annealed at 20°C.
Density reference
Calculate finished mass from the actual geometry. A material conductivity difference does not establish a device-temperature reduction.
| Grade | European reference | Si | Fe | Cu | Mn | Mg | Zn | Al |
|---|---|---|---|---|---|---|---|---|
| 6061 | EN AW-6061 · AlMg1SiCu | 0.40–0.80 | ≤0.70 | 0.15–0.40 | ≤0.15 | 0.80–1.20 | ≤0.25 | Balance |
| C11000 | Cu-ETP · CW004A | — | — | ≥99.90 | — | — | — | — |
Selected elements only. Dash means not specified in this summary, not zero. 6061: Cr 0.04–0.35%, Ti ≤0.15%; C11000: O ≤0.040%; do not relabel Cu-ETP as oxygen-free copper. Aluminum other elements ≤0.05% each / ≤0.15% total. The purchasing standard and certificate govern. Confirm product form, temper, joining compatibility and required final condition.
Sources: Hydro 6061 → · KME Cu-ETP →
3 Views of Your Inverter Cooling Decision
Compare the loss allocation, installed boundary and approval evidence. The chart is a chosen arithmetic example, not a product rating or measured inverter test.
1 · Allocate the chosen losses
Chosen example: 120 + 180 + 300 = 600 W across three module locations. Their shares are 20%, 30% and 50%. These chosen losses are not an inverter output rating, typical efficiency or LK MFG capability. Replace them with your controlled loss map and relevant operating cases.
2 · Define the installed boundary
MODULE FOOTPRINTS + SHARED CONTACT PLANE↓AIRFLOW OR COOLANT + INLET CONDITIONS↓ENCLOSURE + CONNECTIONS + SERVICE ACCESS
Review obstruction, recirculation or flow routing in the actual installation. A bench setup does not automatically reproduce the converter enclosure or hydraulic circuit.
3 · Approve separate evidence
DIMENSIONS + JOINING + CLEANLINESS↓DEFINED LEAK / PRESSURE BOUNDARY↓THERMAL + HYDRAULIC + ELECTRICAL OWNERS
Agree the configuration, loss map, sensors, mounting, interface materials and operating cases. A dimensional report or leak record does not establish installed module temperatures.
Review Your Surface and Cleanliness Requirements
Separate your thermal contact faces, sealing interfaces and wetted passages. Confirm the specified final condition with the mating assembly.
Define the module contact area and final surface inspection state from the released drawing.
Specify the finished thread, fitting engagement and agreed sealing surfaces.
Protect fins, finished contact faces and ports; agree cleaning and shipment condition.
A finish is not a universal cooling improvement. Confirm its purpose, compatibility and inspection state. Review surface finishing options →
Illustrative engineering concepts
Define Your Functional Features
Put the dimensions that control sealing, assembly fit and heat transfer on your drawing.
Illustrative inverter cold plate section concept
Contact footprint
Module loss map, selected TIM and approved clamping stack
Ports and seals
Thread designation, seal land and fitting engagement
Mounting datums
Hole pattern, datum scheme and tool access
Cover and passages
Joining access, wall thickness and cleaning scope
Final condition
Flatness, masking, protected interfaces and inspection state
Resolve 6 Design Risks Before Your Order
Resolve contact flatness, TIM and isolation responsibility, connection checks, material, operating conditions and approval evidence.
Shared mounting plane
Specify inverter cooling plate flatness and inspection area from the selected modules and released mounting documentation. Review the final joined and machined state, the shared mounting plane and the actual clamping stack; one package limit is not universal.
Your input
Controlled drawing and the relevant service conditions.
Your acceptance
Agreed method, inspection state, limits and required records.
Illustrative engineering concept
Contact and isolation
Review inverter cooling electrical isolation separately from thermal contact. Identify the approved TIM and dielectric requirements from the selected module and system documentation. A conductive paste, coating or unverified interface illustration does not establish electrical insulation.
Your input
Controlled drawing and the relevant service conditions.
Your acceptance
Agreed method, inspection state, limits and required records.
Illustrative engineering concept
Joining and leak boundary
Define inverter cooling plate leak testing for the supplied plate, joined cover, plugs, fittings and seals. State the medium, conditions, acceptance limit, duration and record. Pressure integrity, cleanliness and thermal performance remain separate approval scopes.
Your input
Controlled drawing and the relevant service conditions.
Your acceptance
Agreed method, inspection state, limits and required records.
Illustrative engineering concept
Materials and fluid
Review inverter cooling material compatibility across all wetted metals, coatings, seals and the selected fluid. Confirm grade, temper, joining route and purchasing specification. Bulk conductivity alone does not approve coolant compatibility or predict module temperatures.
Your input
Controlled drawing and the relevant service conditions.
Your acceptance
Agreed method, inspection state, limits and required records.
Illustrative engineering concept
Flow and installed airflow
Check flow routing and pressure loss against the actual system boundary. For air cooling, review obstruction, recirculation and fin orientation using the installed airflow. Do not assume a bench fan or a single cold-plate flow value reproduces the inverter installation.
Your input
Controlled drawing and the relevant service conditions.
Your acceptance
Agreed method, inspection state, limits and required records.
Illustrative engineering concept
Production release
Base inverter cooling sample approval on the controlled revision, contact dimensions, mounting fit, material and specified records. Validate the temperature distribution and hydraulic behavior with agreed losses, mounting, TIM and operating conditions before repeat release.
Your input
Controlled drawing and the relevant service conditions.
Your acceptance
Agreed method, inspection state, limits and required records.
Illustrative engineering concept
5 Checkpoints from Drawing to Repeat Supply
Drawing review
Confirm revision, interfaces and operating inputs.
Route review
Agree materials, joining and final machining.
Sample build
Review the finished component and assembly fit.
Agreed checks
Assess specified dimensions, joints and test records.
Production release
Release the accepted revision, packaging and repeat-order scope.
Approve Your Baseplate Geometry and Installed Validation Separately
Illustrative component concept
Your sample records should connect the inverter loss map and module positions to the released plate drawing, material and final contact surfaces. Agree dimensions, joining records, cleanliness and specified leak checks. Module-temperature, hydraulic and electrical acceptance require their own conditions and approval owners.
- Material identity and drawing revision
- Module contact face, mounting datums and ports
- Specified joining and test evidence
- Contact-face and port protection, packaging and release
Match Your Cooling Part to the Released Power Module
These are component review contexts, not customer cases, automotive qualification, certified converters or endorsed package compatibility.
Industrial drives
Review the selected module loss map and installed cooling route.
Power converters
Control contact footprint, mounting and nearby keep-outs.
Renewable power equipment
Define operating conditions and the approval owner.
Charging power stages
Review coolant connections or available airflow.
Traction component prototypes
Match the released module interfaces and supplied part scope.
Power supply modules
State exact footprints and the dissipated losses.
Validation fixtures
Control TIM, mounting, sensor positions and operating inputs.
Replacement cooling parts
Match the exact module and installed revisions.
6 Inputs for Your Inverter Cooling Quote
- Loss map + duty cycle and installed operating cases
- Exact module part numbers + current mounting instructions
- Contact stack, TIM + isolation responsibility
- Baseplate datums, holes, keep-outs + service access
- Available airflow or coolant, inlet temperature + flow allowance
- Material, quantities + sample evidence and validation owner
Ask your quote to separate component manufacturing, joining, finishing, inspection and any independently agreed validation. The drawing review confirms availability, quantities and delivery scope.
Answers Before You Specify
What inverter data is needed for a custom cooling plate quote?
Provide the controlled plate and assembly drawings, exact module part numbers and mounting instructions, heat-source loss map, temperature limits, operating cycle, contact stack, installed air or coolant conditions, quantities and required sample evidence. Identify the supplied manufacturing boundary.
When should an inverter cooling plate move from prototype to production?
Release the accepted drawing revision after reviewing sample dimensions, mounting fit, material, joining and the specified records. Complete separately agreed thermal, hydraulic and electrical validation for the installed configuration. A visually acceptable sample alone is not production approval.
Does inverter cooling require the same design for IGBT and SiC modules?
No universal shared design can be assumed. Review each selected package, loss map, switching conditions, mounting instructions and interface stack. A change of semiconductor technology may also change the module layout and installed cooling boundary; revalidate the affected interfaces.
Which acceptance tests are needed for an inverter cold plate sample?
Agree material identity, final contact geometry, mounting and port dimensions, fit, cleanliness and any specified leak or pressure checks. Define hydraulic, thermal and electrical validation separately, with operating inputs, sensor locations and approval responsibilities.
Can the inverter output rating be used as the heat load?
Use the relevant dissipated losses and heat-source distribution. Electrical output is not the same quantity as heat entering the cooling component. Share the operating cases and calculation or measurement basis, including the relevant duty cycle and switching conditions.
Will adding external fins or a fan guarantee lower module temperatures?
No. The complete heat path, contact stack, enclosure and installed flow determine the result. Review the approved equipment configuration and validate the actual module temperatures; an exterior surface temperature or photograph does not establish junction conditions.
