Exploded view of a Gigabyte GeForce RTX Turbo Edition graphics card showing internal cooling components.
Capability

PCB embedded vapor chambers

Spread heat across the board surface to cool dense electronics before hot spots build.

Machined aluminum thermal frame with a curved copper heat pipe and black side rails.
Capability

High conductance wedge locks

Secure cards and pull heat to the chassis rail, cutting thermal interface resistance.

Liquid cooling cold plate with copper base and two flexible metal hoses for server systems.
Capability

Autonomous liquid cooling

Standalone microprocessors and valves adjust coolant flow on their own as loads shift.

Thermal simulation showing heat map on a computer screen
Approach

Engineered for your numbers

We size each system to your power budget, thermal budget, and launch constraints.

SPACECRAFT COOLING

Heat management built for spacecraft electronics

Emergent Spacecraft Heat Solutions designs advanced thermal systems so your electronics stay within safe operating temperatures, mission after mission.

Close up of a satellite electronic circuit board with thermal management components in a clean laboratory
Engineer in a cleanroom examining spacecraft hardware with precision tools
Our hardware

Hardware that actually moves heat

We have built the core thermal hardware ourselves: PCB embedded vapor chambers, high conductance wedge locks, and the autonomous cooling systems that tie them together.

Close-up of a circuit board with embedded thermal components
PCB embedded vapor chambers. Heat spreads directly inside the board, not just on the surface.
Metal wedge lock mechanism securing an electronics card
High conductance wedge locks. More contact pressure where the card meets the chassis, so heat leaves fast.
Compact liquid cooling system with tubing and valves
Autonomous liquid cooling. Standalone microprocessors and valves make the loop self-regulating.
Engineer reviewing thermal performance data on a monitor
Specified for your board. We size each chamber and lock to your electronics and thermal load.
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Customer feedback

Engineers trust our thermal hardware

From PCB embedded vapor chambers to autonomous liquid cooling, customers rely on performance they can measure.

The vapor chambers held temperature on our test board within spec through every cycle. No drift, no surprises, just solid thermal control.

Alex Rivera

Alex Rivera

Thermal Engineer, Satellite Systems

We swapped our wedge locks for the high conductance design. Mounting torque stayed consistent and heat transfer improved across the interface.

David Kim

David Kim

Mechanical Lead, CubeSat Program

The autonomous cooling loop responded to load changes without our input. The standalone controller kept junction temps stable during peak operation.

Priya Nair

Priya Nair

Avionics Architect, Space Systems

Clear documentation and reliable hardware. Integration took less time than we budgeted, and the thermal margins came out better than predicted.

Marcus Webb

Marcus Webb

Systems Engineer, Orbital Platforms

THERMAL PERFORMANCE

Vapor chambers that handle the load

We build thermal hardware that keeps spacecraft electronics within safe operating limits, spec by spec.

100%

of our vapor chambers are leak-tested before delivery

3x

more heat spread compared to solid copper plates

0

moving parts in our wedge lock designs, so nothing wears out

24/7

thermal monitoring with our autonomous liquid cooling systems

Get a thermal design review for your spacecraft electronics

We'll assess your heat load and recommend the right vapor chamber, wedge lock, or cooling approach before you commit to a build.

WHO WE ARE

Built for the thermal loads of modern spacecraft

Emergent Spacecraft Heat Solutions designs next-generation heat management from Los Angeles. We focus on PCB embedded vapor chambers, high conductance wedge locks, and autonomous liquid cooling systems with standalone microprocessors and valves. Engineered for electronics that can't afford to overheat.