Data centers · Energy storage · Electrified systems
A FIRE STARTS WITH ONE HOT SPOT.
IT CAN TAKE EVERYTHING.
A fire in a data center, a battery hall or an electrical room can cost millions in hardware, halt operations for months, and put lives at risk.
Capsule Systems builds the response into the material itself, stopping fire where it starts, before it spreads.
BY THE TIME THE ROOMREACTS, IT’S TOO LATE.
A single cell in a battery pack. A hot connection on a busbar. One component inside a sealed cabinet. That is where a fire begins. Conventional systems protect the whole room, so they only react once the fire has already spread.
The cost is never just the hardware. It’s the downtime, the data, the capital, and the lives that depend on the system staying up.
THE SAME EVENT. TWO OUTCOMES.
Watch a single thermal event unfold. On the left, nothing responds at the source and it cascades through the system. On the right, the material responds where the heat arrives, and the event stays local.
ILLUSTRATIVE, CONCEPTUAL. NOT TEST DATA.
What’s at stake
THE COST ISN’T JUST THE FIRE.
THE FIRE IS THE SMALLEST BILL
Downtime, lost data, halted production and recovery routinely dwarf the hardware that actually burned.
IT DOESN’T STAY IN ONE PLACE
One cell, one connection, one component. With nothing responding locally, it becomes the whole system in minutes.
AND PEOPLE ARE IN THE ROOM
The sites we focus on hold infrastructure, capital and human lives in the same place. A fire that spreads is how people get hurt.
Keep the event local, and you keep everything else. That’s the layer Capsule Systems is building.
The response should begin where the event does.
SO WE BUILD IT INTOTHE MATERIAL ITSELF.
Capsule Systems disperses heat-activated microcapsules into a coating, a paint, a liner or a sticker, applied to the surfaces you need to protect: an outlet, a cable, a panel, an enclosure. When heat reaches one spot, the capsules there release a gas that suppresses the fire on contact, so the surface stays cool and the event never spreads.
SEALED
Microcapsules sit inert inside the coating.
How it works
FROM EMBEDDED MATERIAL
TO LOCAL RESPONSE.
EMBED
Microcapsules are dispersed within a protective material, coating, liner or engineered matrix.
HEAT REACHES THE MATERIAL
A localized thermal event transfers heat into the protected material.
LOCAL HEAT. LOCAL RESPONSE.
Capsules exposed to the thermal zone activate locally.
RAPID RELEASE. CONTINUED RESPONSE.
Initial pressure-driven release disperses fire-suppression agent through the capsule structure, followed by continued release from the activated region.
EMBED
Microcapsules are dispersed within a protective material, coating, liner or engineered matrix.
HEAT REACHES THE MATERIAL
A localized thermal event transfers heat into the protected material.
LOCAL HEAT. LOCAL RESPONSE.
Capsules exposed to the thermal zone activate locally.
RAPID RELEASE. CONTINUED RESPONSE.
Initial pressure-driven release disperses fire-suppression agent through the capsule structure, followed by continued release from the activated region.
Why it’s different
A DIFFERENT LAYER OF PROTECTION.
BUILT INTO THE MATERIAL
The response is engineered directly into coatings, liners, polymers and composites, not bolted on.
LOCAL RESPONSE
Designed to act at the point of thermal exposure, where heat reaches the material, before it spreads.
COMPLEMENTS YOUR SYSTEMS
A different layer of protection, designed to work alongside code-required fire protection, not replace it.
ONE PLATFORM, MANY FORMATS
One capsule architecture across coatings, paints, liners, polymers, composites and enclosures.
Layers of protection
A DIFFERENT LAYER. NOT A REPLACEMENT.
Established systems protect a space, an enclosure or a volume. Capsule Systems is developing a response that begins in the material itself, designed to complement code-required fire protection.
SPRINKLER SYSTEMS
Respond to a protected space
Water-based, area coverage.
GASEOUS SYSTEMS
Flood a sealed enclosure
Require sealed volumes.
AEROSOL SYSTEMS
Disperse into a volume
Particulate into protected volume.
MATERIAL-LEVEL RESPONSE
Responds within the material itself
Local response where heat arrives.
Capsule Systems materials are designed to complement, not replace, code-required fire protection systems.
Application formats
NOT A SINGLE PRODUCT FORM. A MATERIAL PLATFORM.
How it integrates
THE RESPONSE LIVES IN THE COATING.
The capsules live in a coating you apply to the surface you want to protect: a paint, a liner or a sticker. When heat reaches one spot, the capsules there release a gas that suppresses the fire locally, and the surface around it stays cool. The rest of the coating stays sealed.
COATINGS & PAINTS
Capsules disperse through an applied coating or paint layer on the protected surface.
LINERS
Capsules are engineered into a liner on the inside face of an enclosure or compartment.
POLYMER & COMPOSITE
Capsules are distributed throughout a polymer matrix or composite during formation.
Beyond the visualization
BEYOND THE VISUALIZATION.
Development-stage test footage. Test configuration and results vary by formulation and application architecture.
Patent pending
ENGINEERED FROM THE CAPSULE OUT.
Proprietary microencapsulated fire-suppression architectures focused on propellant-assisted release and sustained localized response.
View technology overview→Built for integration
BUILT FOR INTEGRATION.
MATERIAL PARTNERS
Paint, coating, polymer, composite companies.
SYSTEM PARTNERS
Data center, battery, electrical, industrial systems.
TESTING PARTNERS
Labs, fire testing, materials characterization.
Common questions
STRAIGHT ANSWERS.
Development-stage technology, described honestly. If your question isn’t here, ask us directly.
Ask a question →No. Capsule Systems materials are designed to complement, not replace, code-required fire protection systems. They add a local response layer within the materials around at-risk equipment.
PROTECT ASSETS.PROTECT LIVES.
When a local event stays local, the business keeps running and everyone goes home. That is what we are building toward.