CAPSULE SYSTEMS

Technology

ENGINEEREDTORESPONDATTHEMATERIALLEVEL.

Heat-activated microencapsulation designed to deliver localized fire-suppression response at the point of thermal exposure.

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Capsule architecture

FROMENGINEEREDARCHITECTURETOACTIVATEDRELEASE.

01Protective outer architecture
02Perforated spherical framework
03Fire-suppression agent
04Propellant-assisted release
05Distributed micro-openings
06Localized thermal activation

Sealed, until heat activates the local response.

Anatomy

ENGINEERED, PART BY PART.

A single porous microcapsule in the void, an ember core glowing through its shell
A SINGLE CAPSULE · ILLUSTRATIVE

The reaction

SEALED, UNTIL HEAT ARRIVES.

LOADING
  1. 01SealedMicrocapsules sit inert inside the protective material.
  2. 02Heat arrivesA localized thermal event reaches the material.
  3. 03ActivationExposed capsules activate; the agent core engages.
  4. 04ReleasePressure-driven release disperses agent, locally.

Why local response

THEEVENTISLOCALBEFORETHELOSSISSYSTEMIC.

A thermal event may begin at a connection, cell, component or confined surface. Capsule Systems is developing material systems designed to respond in the same local region where heat reaches the material.

RESPOND WHERE HEAT ARRIVES.

Layers of protection

A DIFFERENT LAYER OF PROTECTION.

Sprinkler systems

Respond to a protected space; water-based.

Gaseous systems

Flood an enclosure; require sealed volumes.

Aerosol systems

Disperse into a protected volume.

Material-level response

Designed to respond locally where heat reaches the material.

Capsule Systems materials are designed to complement, not replace, code-required fire protection systems.

Patent pending

ENGINEEREDFROMTHECAPSULEOUT.

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