Discuss a pilot Potential applications
KOOL PHASE is being developed for compute environments where thermal density, infrastructure constraints, energy use, water availability, or physical footprint may limit what can be deployed.
Where KOOL PHASE may be relevant
KOOL PHASE may be relevant where thermal density, physical footprint, infrastructure limits, or operating conditions are becoming meaningful constraints.
Heat is captured direct-to-chip, while controlled phase change is designed to occur inside the Coolant Distribution Unit (CDU). Computing hardware is not submerged in coolant.
Understand the technologyPotential applications
ConstraintAccelerator-driven compute is increasing rack-level thermal density and pressure on existing cooling infrastructure.
Potential relevanceKOOL PHASE is being developed for environments where direct-to-chip heat capture and a compact thermal architecture may warrant evaluation.
ConstraintSustained computational workloads can create persistent high thermal loads and infrastructure pressure.
Potential relevanceKOOL PHASE may be relevant to High-Performance Computing environments evaluating new approaches to dense thermal management.
ConstraintSome specialized compute systems operate where heat removal becomes one of the primary deployment constraints.
Potential relevanceKOOL PHASE is being developed for environments where thermal density materially influences system design.
Target environments
ConstraintEdge deployments often operate with limited space, constrained facility infrastructure, and uneven environmental conditions.
Potential relevanceKOOL PHASE may warrant evaluation where compact cooling architecture is an important design consideration.
ConstraintModular environments can require cooling systems that align with phased deployment and constrained physical footprints.
Potential relevanceKOOL PHASE is being developed as a modular thermal architecture that may be relevant to these environments.
ConstraintSmaller facilities may face increasing compute density without the space or infrastructure available to larger campuses.
Potential relevanceKOOL PHASE may be relevant where thermal growth must be considered alongside facility footprint and infrastructure constraints.
Potential evaluation environments
ConstraintResearch environments can involve variable workloads, specialized equipment, and changing thermal requirements.
Potential relevanceKOOL PHASE may warrant evaluation in controlled research or validation environments exploring next-generation direct-to-chip cooling.
ConstraintQuantum computing facilities may include supporting compute and thermal infrastructure with strict environmental and operational requirements.
Potential relevanceKOOL PHASE may be relevant only to supporting thermal infrastructure where direct-to-chip cooling is appropriate.
Pilot collaboration
If one of these environments reflects a real thermal, space, water, or infrastructure constraint, share the operating context for an initial technical assessment.
Starting a discussion does not guarantee acceptance into a pilot programme.