Dynamic Camouflage Coating
Adaptive visible camouflage that shifts color and pattern as the platform moves through changing terrain — a single coating that replaces the multi-set logistics of static camo.
Inside the coating →Kenai Defense builds adaptive technologies that change a platform's visible and infrared signature in real time. We confuse AI classification models and help you survive.
Visible-spectrum and infrared signature control on the platform, and a population-scale simulation environment to design force structure and tactics around them. Each pillar is independently fielded and compounds when paired.
Adaptive visible camouflage that shifts color and pattern as the platform moves through changing terrain — a single coating that replaces the multi-set logistics of static camo.
Inside the coating →Programmable thermal-signature management. Blend with the background, mask hotspots, or project deceptive thermal effects that complicate identification in IR-observed environments.
Inside the signature →Red versus blue, at population scale. Our agents reason, plan, and adapt the way real forces do — turning population-scale agentic modeling, force design, and concept evaluation into a continuous, computational practice.
Inside the simulation →A next-generation coating that lets vehicles, equipment, and other mission assets adapt their visible appearance to the surrounding terrain — without swapping nets, covers, or paint schemes.
Dynamic Camouflage Coating is designed to reduce visual detectability by allowing a platform's exterior appearance to adapt to its environment. Instead of relying on one fixed color or pattern, the coating can be controlled to present different visible states across the surface — letting operators match surrounding environments, reduce contrast, and disrupt the recognizable outline of the asset.
The technology is intended for platforms that move across different terrain types, or operate in conditions where conventional static camouflage is less effective. Adaptability is built directly into the coated surface — a more integrated and responsive approach to visible-spectrum concealment.
At a high level, Dynamic Camouflage Coating electronically adjusts the visible appearance of a coated surface, presenting selected color states or controlled visual patterns based on mission needs and environmental conditions. The platform looks less conspicuous because its visible appearance is adaptable — not fixed.
Modern operating environments are not static, and camouflage shouldn't be either. As platforms move through different terrain, lighting, and mission conditions, fixed camouflage degrades. Dynamic Camouflage Coating gives operators a more flexible visible-signature management capability that responds to the surroundings — and reduces reliance on multiple separate camouflage systems.
Tactical vehicles, mission equipment, fielded systems, and other assets where adaptive visual concealment improves survivability — especially when platforms transition between terrain types or must maintain lower visibility without external camouflage systems.
Visual concealment is only part of the signature challenge. Modern IR sensors detect thermal contrast, hotspots, and identifiable heat patterns even when visual camouflage is effective. Dynamic IR Signature Control gives operators a controlled thermal appearance — for blending, masking, or deception.
Dynamic IR Signature Control influences how a platform appears to infrared sensing systems. Rather than simply exposing the asset's natural heat signature, the technology enables a more controlled thermal appearance across the coated surface — reducing thermal contrast with the environment, smoothing out localized hotspots, or creating thermal effects that complicate identification and interpretation.
The technology is designed to manage the apparent thermal output of a coated surface through electronically controlled operation, shaping how the platform appears in the infrared spectrum rather than reflecting its raw underlying heat signature. Multiple thermal-signature effects let a platform blend, mask, or alter its IR appearance based on mission requirements.
As infrared sensing becomes more common across surveillance and targeting environments, managing thermal signature is increasingly important. A platform that is visually concealed may still be highly visible in the infrared spectrum. Dynamic IR Signature Control supports a broader approach to survivability — reducing detectability, limiting recognizable heat patterns, and complicating IR-based identification.
Tactical vehicles, mission equipment, support assets, and other systems operating in sensor-rich environments where infrared observability matters — particularly where thermal detection, classification, or tracking poses an operational challenge and passive solutions alone are insufficient.
A computational practice for force design and concept evaluation. Our agents reason, plan, and adapt the way real forces do — turning population-scale agentic modeling into a continuous, instrumented loop that runs faster than the operating environment changes.
A simulation environment in which AI agents represent individual decision-makers — soldiers, units, commanders, civilians — and behave the way real ones do: with goals, doctrine, situational awareness, and the freedom to choose. Run them by the thousands, and what emerges is a high-fidelity model of how a force, a population, or a contested environment actually behaves under stress.
Stand up a scenario. Populate it with red and blue agents wired to the doctrines you want to test. Run it forward at speed. Vary force composition, posture, and tactics. Replay the engagements that mattered. Use the results to inform force design, concept evaluation, and operational decision support — at a tempo that traditional studies and tabletop exercises cannot match.
Modern force design has to evaluate more concepts, against more adversary postures, faster than ever. Population-scale agentic simulation turns that work from a one-off study into a living, instrumented practice — one that compounds with every run.
Specifics of the agent architecture, scenario libraries, and supported integrations are shared under appropriate agreements. Reach the team to begin a discussion.
For program offices, primes, and partners evaluating signature-management technologies or population-scale agentic modeling. Reach our team and we'll route you to the right engineer the same day.
OFFICE // 1753 Redwood Rd, Woods Cross, UT 84087