NanoResearchINC.

Intelligent thermal systems

ADTM™

Thermal physics. Physical actuation. Intelligent control.

An integrated hardware–firmware thermal-management technology combining thermal physics, actuation physics and predictive intelligent control within a unified multiphysics framework.

01 / RESEARCH DIRECTION

Understand
the approach.

ADTM connects a verified physical actuation mechanism with sensing, a thermal model and control firmware. The selected actuator must have measurable authority over the relevant thermal or hydraulic boundary before predictive control can deliver an application benefit.

02 / CONFIGURATIONS

Explore the
design pathways.

Choose a configuration to examine its engineering focus.

Coolant-side investigation

Investigates controllable mechanisms in the coolant-side thermal path.

Possible controlled boundary
Flow distribution, near-wall transport or hydraulic resistance
Required evidence
Measured physical response to actuation
System metrics
Thermal resistance, temperature and auxiliary power

03 / APPLICATION PATHWAYS

Start with
your application.

Select a pathway to see the integration and evaluation considerations.

Adaptive liquid cooling

The challenge

Responding to changing heat loads and thermal constraints in a liquid-cooled assembly.

Integration focus

Define the actuator, sensors, controllable boundary and interface to the existing cooling system.

Evaluation direction

Measure actuator authority first, then compare closed-loop behavior against an appropriate fixed or conventional-control baseline.

Discuss this application ↗

04 / EVIDENCE & EVALUATION

Define what
success looks like.

Model fidelity cannot substitute for physical control authority. ADTM development must demonstrate a repeatable physical mechanism, then quantify system-level outcomes. Energy or performance benefits require matched-condition measurement.

Prepare for a technical discussion

Bring the operating context and constraints. We can then identify a relevant development or evaluation pathway.

  • Thermal system, workload variation and temperature constraints
  • Physical boundary that can be controlled
  • Candidate actuator and measured control authority
  • Available telemetry, firmware interfaces and validation baseline
Prepare an inquiry ↗

Submit an inquiry and receive a reference once it is stored.