Heat Transfer Analysis
Review temperature distribution and thermal resistance to understand the heat removal path.
THERMAL ENGINEERING & MANUFACTURING
Cold Plate Design Services
Thermal Design & Simulation
Evaluate heat transfer, coolant flow and manufacturing feasibility before production. JBT connects liquid cold plate design, in-house CFD simulation and precision CNC manufacturing to help turn your thermal requirements into practical cooling components.
Start with your heat load, operating conditions and CAD files.
Request a Design ReviewCFD SIMULATION / ENGINEERING / PROTOTYPES / TESTING
THERMAL ENGINEERING EXPLAINED
What Is Thermal Design and Simulation?
Understand how heat moves through a component and how coolant travels through its channels, so design decisions can be evaluated before machining begins.
Engineering reference visualization; no measured performance is implied.
Make design decisions with a clearer engineering basis.
Cold plate thermal simulation connects heat sources, material properties and coolant conditions in a digital model. Comparing options early helps your team identify thermal risks and manufacturing constraints before committing to a prototype.
Fluid Flow Simulation
Study coolant velocity and pressure drop to identify distribution and pumping concerns.
Manufacturing Feasibility
Review machining access, materials and joining options to keep design intent practical.
Bring thermal performance and production feasibility into the same discussion.
Discuss Your Cooling ConceptENGINEERING CHALLENGES
Is Your Cooling Design Meeting Its Performance Targets?
Heat concentration, hydraulic losses and production constraints can limit cooling performance. Reviewing these challenges early helps focus development on the decisions that matter.
High Operating Temperatures
Concentrated heat can reduce operating margins. Thermal analysis helps locate potential hot spots before prototype manufacture.
Excessive Pressure Drop
Restrictive channels increase pumping demands. Flow analysis helps identify where the coolant circuit may lose pressure.
Uneven Heat Distribution
Uneven contact and flow can create temperature differences. Evaluating both helps your team target more uniform cooling.
Limited Installation Space
Compact assemblies restrict channel and port placement. A coordinated design review balances thermal needs with mechanical interfaces.
Difficult Manufacturing
Complex geometry can complicate machining and joining. Early feasibility review helps avoid impractical production features.
Repeated Prototype Revisions
Late changes consume development time. Comparing concepts before machining supports a more informed prototype plan.
Identify thermal and manufacturing risks before your next design release.
Review Your Engineering ChallengesOUR ENGINEERING EXPERTISE
Integrated Thermal Engineering Capabilities
Thermal management engineering services connect analysis, design, manufacturing and testing, helping your team move from operating requirements toward a component ready for validation.
Thermal Analysis
Evaluate heat transfer paths and temperature fields under defined conditions, giving design decisions a consistent technical basis.
CFD Flow Simulation
Review coolant velocity, distribution and pressure loss to understand hydraulic constraints before manufacturing.
3D Thermal Design
Develop channel geometry and interfaces around heat loads and available space, supporting integration with your assembly.
Design Optimization
Compare channel layouts, contact areas and materials to balance thermal, hydraulic and production requirements.
Manufacturing Engineering
Review tolerances, sealing faces and joining routes to translate design intent into practical machining requirements.
Prototype Validation
Plan physical thermal and flow evaluation against agreed targets to guide subsequent design decisions.
Choose engineering support that matches your current development stage.
Talk to Our Engineering TeamIN-HOUSE CFD SIMULATION
Understand Coolant Flow Before Manufacturing
CFD cold plate design evaluates how internal flow interacts with heat transfer surfaces. Defined boundary conditions make comparisons useful for identifying restrictions, hot spots and hydraulic losses.
Reference engineering image. Project-specific inputs and solver assumptions must be defined for each study.
Coolant Flow Distribution
Cold plate flow distribution analysis helps assess how coolant reaches parallel and complex passages.
Pressure Drop Analysis
Estimate hydraulic resistance at the specified flow rate to inform pump and channel decisions.
Temperature Distribution
Review predicted temperature fields to locate potential thermal concentration.
Channel Geometry Evaluation
Compare passage dimensions and configurations to assess design tradeoffs before machining.
Share coolant properties, inlet temperature, heat load and flow targets for a useful CFD discussion.
Discuss Your CFD RequirementsDESIGN OPTIMIZATION
Balance Cooling Performance,
Pressure Drop and Manufacturability
Iterative cooling channel design compares geometry, heat transfer surfaces and material options, helping your team balance cooling needs with pumping demand and production cost.
Initial Design Evaluation
Review the baseline channel concept against the defined operating conditions.
Design Iteration Review
Compare a revised concept using consistent inputs and agreed evaluation criteria.
Illustrative engineering references only. These images are not a matched before-and-after study and do not demonstrate a measured performance improvement.
Improve Heat Transfer
Evaluate heat paths and contact area to support cold plate thermal resistance optimization.
Manage Pressure Loss
Investigate restrictions and channel transitions for cold plate pressure drop optimization.
Improve Temperature Uniformity
Assess coolant distribution and local heat load to identify potential imbalance.
Consider Production Cost
Review machining complexity and assembly effort alongside predicted performance.
Develop a cooling component that can perform efficiently and be manufactured consistently.
Explore Design OptimizationDESIGN-TO-MANUFACTURING SUPPORT
From Thermal Design
to CNC Manufacturing
CAD geometry, machining requirements and prototype feedback stay connected, helping your team translate the cooling concept into a component that fits the intended assembly.
Engineering Design
Review thermal requirements, internal passages and mechanical interfaces before release.
Precision CNC Machining
Machine channels, mounting surfaces and sealing features to approved drawings.
Cooling Component Manufacturing
Coordinate component production and suitable joining routes around the design.
Inspection and Validation
Evaluate dimensions and prototype behavior against the agreed inspection and testing plan.
Keep thermal requirements, manufacturing tolerances and validation feedback connected.
Explore CNC MachiningOUR DEVELOPMENT PROCESS
A Structured Thermal Design
and Simulation Process
A clear sequence of technical reviews links requirements to simulation, design refinement and physical evaluation, giving your team useful checkpoints throughout development.
01 →
Requirements Review
Review heat load, coolant conditions, available space and drawings to establish the engineering scope.
02 →
3D Model Preparation
Prepare geometry, passages and material inputs so the model reflects the proposed component.
03 →
Simulation Setup
Define heat sources and boundary conditions to make analysis assumptions explicit.
04 →
Thermal and Flow Analysis
Evaluate predicted temperatures, flow distribution and pressure losses to locate design concerns.
05 →
Design Optimization
Refine relevant features while reviewing manufacturability to support practical design decisions.
06 →
Prototype and Validation
Manufacture and test an agreed prototype to compare physical behavior with project targets.
Adapt the workflow to your project stage, available data and validation requirements.
Plan Your Engineering ProjectDESIGN FOR MANUFACTURING
Thermal Designs Built Around
Real Manufacturing Capabilities
DFM review brings machining access, tolerance requirements and joining constraints into thermal development, helping identify production challenges before prototype or volume orders.
Cooling Channel Manufacturability
Review channel width, depth, spacing and tool access to assess machining feasibility.
Sealing and Assembly Interfaces
Evaluate seal grooves, mating faces and ports so the component can be assembled as intended.
Dimensional Tolerances and Flatness
Define critical contact surfaces and practical tolerances to support consistent fit.
Joining Process Compatibility
Review vacuum brazing and friction stir welding options against the proposed materials and structure.
Cost and Production Feasibility
Consider material usage, fixtures and machining effort to clarify production tradeoffs.
Balance thermal performance, reliable assembly and production cost in one design review.
Submit Your Design for DFM ReviewMATERIALS & MANUFACTURING PROCESSES
Select the Right Materials and Processes
for Your Cooling Design
Material and process choices influence heat transfer, structural integrity and production cost. Reviewing them together helps define a suitable manufacturing route for the component.
Materials for Thermal Components
Aluminum Alloys
Balance weight, conductivity, corrosion resistance and machinability for the intended coolant and operating conditions.
Copper
Consider high thermal conductivity alongside weight, material cost and joining compatibility.
Application-Specific Materials
Evaluate alternative metals and combinations against operating conditions and customer specifications.
Manufacturing Process Options
Precision CNC Machining
Create channels, mounting features and contact surfaces around approved geometry and tolerances.
Vacuum Brazing
Evaluate bonded metal interfaces for compatible structures, alloys and joint requirements.
Friction Stir Welding
Review solid-state joining for suitable aluminum structures and enclosed flow passages.
Match materials and manufacturing routes to your thermal requirements and production needs.
Discuss Materials and ProcessesENGINEERING VALIDATION
Connect Simulation Results
with Real Thermal Testing
Simulation predicts behavior under defined assumptions; physical testing measures a manufactured prototype. Reviewing both helps identify differences and guide further design refinement.
CFD Simulation
Predict temperature fields, coolant flow and pressure losses using defined model inputs and boundary conditions.
Physical Thermal Testing
Evaluate prototype behavior under controlled conditions and compare measurements against agreed project targets.
Temperature
Review temperature distribution and critical measurement points.
Thermal Resistance
Evaluate heat transfer performance under defined test conditions.
Coolant Flow
Confirm flow rate and coolant operating conditions during evaluation.
Pressure Drop
Measure pressure difference across the cooling component.
Reference imagery illustrates the engineering approaches. Test conditions, methods and acceptance criteria are agreed per project; simulation predictions are not guaranteed physical performance.
Define the validation plan before making performance acceptance decisions.
Discuss Your Testing RequirementsAPPLICATION-DRIVEN ENGINEERING
Thermal Design Support Across
High-Performance Industries
Different applications bring different heat loads, coolant conditions and space constraints. Application-focused review helps shape cooling components around the equipment they serve.
AI Servers & Data Centers
Evaluate high-density CPU, GPU and power electronics cooling to support heat removal within demanding equipment layouts.
Explore details
EV Batteries & Inverters
Review coolant distribution and interfaces for battery modules and power conversion assemblies.
Explore details
Semiconductors
Evaluate heat paths and operating conditions for temperature-sensitive power semiconductor assemblies.
Explore details
Laser Equipment
Review concentrated thermal loads and compact interfaces to support stable laser cooling integration.
Explore details
Medical Equipment
Coordinate cooling geometry and mechanical requirements for precision medical and laboratory equipment.
Explore details
Energy Storage
Review thermal component requirements for energy storage systems and associated power electronics.
Explore detailsShare your application conditions so the engineering review starts with your actual constraints.
Discuss Your ApplicationWHY WORK WITH JBT
Your Thermal Engineering
and Manufacturing Partner
JBT connects thermal design and simulation with precision manufacturing and physical evaluation, supporting clearer coordination between design intent and production requirements.
Engineering reference image supplied with the brief.
In-House CFD Simulation
Simulation resources support thermal and fluid analysis during component development.
Engineering Support
CAD review and technical discussions help clarify design inputs and interfaces.
Precision Manufacturing
CNC resources translate cooling passages and mounting features into custom components.
Physical Evaluation
Prototype testing supports engineering decisions under agreed operating conditions.
Quality-Focused Production
Agreed inspection criteria support dimensional checks and process control.
Engineering Communication
Coordinated technical reviews help keep specifications and design changes aligned.
Bring CFD evaluation, DFM review, manufacturing and validation into one coordinated process.
Talk to Our Engineering TeamFREQUENTLY ASKED QUESTIONS
Thermal Design and Simulation FAQs
Review the information needed for CFD analysis, manufacturing feasibility and prototype validation so your engineering inquiry can move forward with a clear scope.
What information do you need to start a thermal simulation?
Share heat load, geometry, coolant type, inlet temperature, flow rate, pressure limits, material preferences and available CAD files. These inputs establish the analysis conditions; missing parameters can be identified during the initial review.
Can JBT perform CFD simulation for custom liquid cold plates?
In-house CFD analysis supports review of coolant distribution, temperature fields and pressure loss for custom components. Scope and model assumptions are confirmed against the project requirements.
Can you help optimize an existing cold plate design?
An existing design can be reviewed for channel geometry, thermal interfaces, hydraulic resistance and manufacturing constraints. Comparing agreed alternatives helps your team assess practical changes.
Do you provide both thermal design and CNC manufacturing?
Thermal engineering and CNC manufacturing support can be coordinated within the project scope. Reviewing both early helps align the design with feasible production requirements.
Can you compare different cooling channel designs?
Channel concepts can be compared using consistent heat loads, coolant properties and boundary conditions. This provides a clearer basis for evaluating thermal and hydraulic tradeoffs.
Can JBT validate CFD results with physical testing?
Prototype testing can be discussed as part of the validation plan. Conditions, measurement methods and acceptance targets must be agreed before simulation and measured results are compared.
What file formats can customers submit?
STEP or STP models and PDF drawings are useful for design review. Supporting spreadsheets, images and specifications help explain operating conditions; confirm the file transfer method for large or confidential files.
How long does thermal design and simulation take?
Timing depends on geometry complexity, input completeness, analysis scope and iteration needs. A schedule can be discussed after reviewing your files and required deliverables.
Still have questions? Share your drawings and thermal requirements for an initial discussion.
Ask Our EngineersSTART YOUR THERMAL ENGINEERING PROJECT
Let’s Review Your
Thermal Design Requirements
Need engineering support for a custom liquid cold plate, heat sink or precision cooling component? Share your drawings, operating conditions and performance targets to discuss suitable design, simulation, manufacturing and testing options.
What You Can Share With Us
- 2D Drawings or 3D CAD Models
- Heat Load and Target Temperatures
- Coolant Type, Flow Rate and Pressure Limits
- Material and Dimensional Specifications
- Prototype or Production Quantities
NDA arrangements and document handling requirements can be discussed before sharing confidential project files.
Request an Engineering Review
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