SwirlXProduct

Heat, moved with precision — for the age of compute.

Our goals, the Vortex product line, and the industries it serves — the whole SwirlX story in one place.

2Vortex platforms

3Materials

250kW+Per rack

Our goals

Three barriers. One geometry.

Every SwirlX program advances the same three goals — swipe through them.

Goal 01

Break the thermal density barrier

Reject far more heat from the same volume. SwirlX's 3D swirl geometry doubles thermal density versus conventional plate exchangers — so racks can run hotter, denser silicon without growing the room.

2×Thermal density vs. plate HEX

Goal 02

Maximize energy efficiency

Move the same heat with less pumping power. Today nearly half of data-center power goes to cooling — SwirlX lowers that overhead and returns those watts to the work that pays for the building.

−30%Pumping power

Goal 03

Unlock more compute per footprint

Smaller heat exchangers free floor space for what matters. 46% less installed volume at the same heat duty means more compute per square meter — densifying facilities without rebuilding them.

−46%Installed volume

The science

2× the heat. Half the volume.

SwirlX replaces flat plates with an AI-designed, 3D-printed swirl geometry — more heat moved through dramatically less hardware.

How it works

Designed by AI. Printed in 3D. Proven in the lab.

AI-designed geometry

Generative optimization searches millions of lattice geometries for maximum heat transfer per unit of pumping power.

3D-printed lattice

Additive manufacturing realizes swirl structures that are impossible to stamp or braze in conventional plate exchangers.

Experimentally validated

Every geometry is benchmarked on instrumented test rigs against conventional plate HEX at matched duty.

Performance

Measured against conventional plate HEX.

0×

Thermal density

0×

Surface area / volume

Less installed volume

Less pumping power

Head-to-head

SwirlX 3D vs. conventional.

Thermal density

2× the heat

SwirlX 3D

Conventional

Surface area / volume

10× the area

SwirlX 3D

Conventional

Installed volume

46% less

SwirlX 3D

Conventional

Pumping power

30% less

SwirlX 3D

Conventional

Specifications

At a glance

Representative figures for SwirlX 3D vs. conventional plate heat exchangers at matched heat duty.

Thermal density2× plate HEX

Surface area / volume10× plate HEX

Installed volume−46% (same duty)

Pumping power−30%

Geometry3D-printed swirl lattice

MaterialsAluminum · Stainless · Copper

Target rack power250 kW+

ValidationExperimental, matched-duty

The Vortex line

Two products. One swirl core.

Vortex M0 and Vortex M1 share the AI-designed 3D geometry — pick the platform, then the material.

Photo available on request

Flagship platform

Vortex M0

The first SwirlX heat exchanger built on the 3D swirl core — engineered for high heat flux in a compact, manifold-ready footprint. Detailed specifications are being finalized.

Full spec sheet coming soon

Applications

One geometry, every industry.

From 250kW+ AI racks to mass-critical aerospace — swipe through the sectors.

Primary market

AI Data Centers

Cool 250kW+ racks without expanding the room. SwirlX moves the heat of next-generation GPU clusters in a fraction of the footprint — densifying facilities instead of rebuilding them.

250kW+Per rack

Mass-critical

Aerospace

When every gram counts, 10× surface area per volume turns thermal management from a penalty into an advantage. Printed swirl geometry packs more cooling into less mass.

10×Surface area

EV powertrain

Automotive

Compact, high-flux heat exchange for EV powertrains and fast-charge systems — more performance from less hardware, packaged into tight vehicle architectures.

2×Heat flux

Pack thermal

Battery

Even, efficient pack cooling that holds cells in their safe window under load — protecting range, life and safety across pack sizes from EVs to grid storage.

UniformΔT control

Get in touch

Find the right SwirlX for your facility.

Tell us your rack power, footprint and heat-rejection setup — we'll recommend the platform and material.