Data centers
Thermal management for high-density servers, AI accelerators and rack-level computing systems.
Engineering
at system scale.
Heat-transfer research, mechanical integration and controls within one development program.
Define the
thermal boundary.
Heat-load definition, thermofluid modelling and system sizing establish the development requirements.
Cold-plate geometry, package interfaces and coolant distribution are then considered in the context of the complete system.
Concept illustrations only. Generic geometry, not Enthalux product CAD, CFD or measured performance.
One engineering
program.
Each design decision connects to a physical interface and a system requirement.
- Cold-plate development
- Microchannels, microjets and nanocoating, with package-level mechanical integration.
- CDU engineering
- Circulation, condensation, fluid inventory, control algorithms and facility interfaces.
- System integration
- Server and rack distribution, parallel branches and controls.
- Manufacturing coordination
- Partner production, assembly coordination and delivery.
PRODUCT APPLICATIONS
Thermal engineering.
Across industries.
Explore application areas for thermal-management development, from ground-based infrastructure to space computing.
New energy
Cooling considerations for battery systems, energy storage and power conversion equipment.
Robotics
Compact thermal design for motor drives, controllers and onboard computing.
Power systems
Heat management for power electronics, converters and electrical infrastructure.
Aerospace & aviation
Thermal design for avionics, onboard electronics and demanding operating environments.
Space computing
Thermal-management concepts for orbital computing payloads and space-based processing.
Medical technology
Temperature management for medical electronics, imaging equipment and precision instruments.
Each application starts with its own heat loads, operating environment and integration requirements.
Built. Measured.
Refined.
Instrumented loops connect design decisions to measured system behavior.
Thermal performance
Temperatures under defined heat loads.
Flow distribution
Pressure losses and parallel operation.
System response
Hardware and control refinement.
What defines a useful validation result?
Heat-source geometry and power map, working fluid and inlet conditions, flow and pressure measurements, temperature measurement methods, operating range and uncertainty.
Performance depends on the configuration and operating conditions. Discuss the test boundary for your application.