Objectives: From military requirement to functioning prototype - in three years

CamoTEXtreme sets out to deliver new textile materials and system concepts that keep the dismounted soldier concealed, protected and comfortable across every operational theatre.

The Main Objectives

Define military requirements for multifunctional adaptive camouflage with armed forces.

Develop adaptive materials for visible, infrared, and radar ranges.

Enable self-cleaning, antibacterial, and chemical hazard detection properties.

Integrate heat and moisture management to scale protection with comfort.

Connect systems to C4I interfaces for situational awareness data.

Evaluate manufacturability and predict scale-up costs via field trials.

A Multispectral Approach

Matching material strategies to every recon threat.

VISIBLE (VIS)

Analysis of surrounding colours via chromic materials and biomimetic patterns.

[ Chromic dyes | Mimetic patterns | Digital printing ]

INFRARED (IR)

Active thermal management using carbon nanostructures and IR-absorbing coatings.

[ Graphene / CNTs | Conjugated polymers | PVD coatings ]

RADAR

Signature reduction across 0.5–8.2 GHz using ferrites and functionalised composites.

[ Meta-materials | Ferrites | EMI shielding ]

Extreme Environments

Arctic

-40 °C

Maintaining microclimate warmth and IR concealment during motion.

Desert

45 °C

Enhanced sweat evaporation, heat loss, and high UV resistance.

Tropical

35 °C

Active moisture rejection with antibacterial/anti-insect finishes.

Work Organisation

STEP 01: Requirements & State of the Art

Military requirements (WP200) and technology surveys (WP300).

STEP 02: Core R&D

Development of mimetic patterns, formulations, and C4I interfaces (WP400).

STEP 03: Systems Integration

Assembly of materials into functional prototype ensembles (WP500).

STEP 04: Testing & Producibility

Field trials (WP600) and industrial scale-up studies (WP700).

⚖️

A balance between protection and comfort

CamoTEXtreme keeps this balance at the centre of every decision, using thermal manikins and climatic chambers to measure trade-offs in real conditions.