We develop custom cold plates and cooling modules for medical equipment manufacturers. The cooling hardware is designed around the specified heat sources, enclosure and coolant conditions. Our supply is the agreed component or module; finished-device validation remains with the equipment manufacturer.
Discuss a Medical Cooling Project
The examples below show the heat sources and integration requirements that shape a cooling design. Suitability depends on the specific equipment and its component specifications.
Liquid cooling can move heat away from compact or sealed areas. Weigh that benefit against pump and tubing space, maintenance, cleanliness and the required response to a cooling fault.
| Question | Air cooling may fit when | Liquid cooling may fit when | Hybrid may fit when |
|---|---|---|---|
| Heat and enclosure | Heat can leave through a practical airflow path. | Heat is concentrated or must be moved away from a compact or sealed area. | Selected sources need liquid while remaining electronics need airflow. |
| Noise and vibration | Local fans meet the equipment acoustic and vibration limits. | Heat rejection can be moved or controlled away from the sensitive area. | Both local low-airflow and remote liquid heat transport are useful. |
| Service and cleanliness | Filters, airflow and fan access fit the maintenance model. | The fluid path and service procedure can be controlled and documented. | The OEM can separate clean or sensitive zones from serviceable zones. |
| Fault response | Fan monitoring and thermal control answer the risk. | Flow, temperature, leakage and condensation responses can be assigned. | Independent cooling modes are part of the device risk-control plan. |
We agree component drawings, materials and tests with your team. These records support equipment development but do not replace the manufacturer’s device-level safety and regulatory work.
Tell us which documents your quality team requires. We confirm the available records and any additional inspection or testing work in the project scope.
Approved drawing, BOM, interface definition and revision history.
Available material information, key characteristics, work instructions and first-article requirements.
Applicable dimensional, assembly, leak, pressure, flow or thermal records under agreed conditions.
Part or lot identity, nonconformance handling, change notice, label and packaging requirements.
| Document group | Purpose | What to agree |
|---|---|---|
| Drawing and BOM | Identify the configuration being purchased and tested. | Drawing and component-list revision for the order. |
| Inspection and test | Show which checks were performed and under what conditions. | Required methods, test conditions and record format. |
| Traceability and change | Connect delivered parts and later changes to the specified design. | Required part or lot identification and record retention. |
We agree checks for the supplied parts or module. Your team uses the results alongside complete-equipment tests for heat, fluid leakage, cleanliness and service conditions.
| Risk | Component checks | OEM follow-up |
|---|---|---|
| Heat and flow | Project-defined thermal, flow or pressure-drop result. | Validate real equipment load, controls and environment. |
| Leak or pressure | Agreed condition, duration and acceptance record. | Validate leak routing and device fault response. |
| Materials and cleanliness | Available material, cleaning and handling evidence. | Confirm device contamination and compatibility requirements. |
| Noise, vibration and service | Selected component checks when included in scope. | Validate complete-equipment operation, maintenance and transport. |
Answers about component supply, quality records and equipment-level validation.
Share the equipment layout, heat load and required quality records. We will review the component design and confirm the available engineering and testing support.
