— Mission brief
A decade of conflict has redefined what defense means. The response has not caught up.
01 / THE SHIFT
Over the past three years, the economics of modern conflict have inverted. Fiber-optic and autonomous last-mile drones operate through jamming. Loitering munitions built from consumer components impose real cost on armored formations. Mass-produced aerial platforms are fielded in numbers that exceed any defense industrial base's ability to produce exquisite responses.
This is not a future scenario. It is the current operating environment in Ukraine, in the Red Sea, and increasingly everywhere allied forces deploy.
02 / THE COST GAP
The capability gap between threat and response is real, but it is downstream of the cost gap. A defensive system that costs a hundred times its target cannot be fielded in the volumes the threat demands. Most of the existing counter-drone industrial base was engineered for a threat profile from the previous decade, with a unit cost structure to match.
The cost structure of defense has to change.
This is not a technology problem. It is a systems-engineering and manufacturing problem. Ketros is built around solving it.
03 / OUR ANSWER
We build defense systems as vertically integrated products: hardware, firmware, autonomy, and on-device inference developed in-house, and engineered from the first day against a unit cost target consistent with the threat. Our systems are layered — networked sensors, distributed command, and affordable effectors designed to operate as a single system rather than as independently procured components.
Every platform is designed to adapt. The threat will evolve; the response must evolve with it. That means on-device intelligence, over-the-air updates, and architectures that separate what the platform can do today from what it will be asked to do tomorrow.
We operate dual product lines — NDAA-compliant configurations for US customers, and equivalent configurations built on globally sourced components for allied markets. Feature parity is maintained across both.
PRINCIPLES
- — Cost-first engineering
- — Allied-nation manufacturability
- — Dual-stack component strategy
- — Operator-informed autonomy
DISCIPLINES
- — Embedded systems, RF, power
- — Computer vision, edge inference
- — Sensor fusion, guidance, controls
- — Systems engineering, SIL/HIL