Enabling the future of defense and critical operations
Unmanned systems still depend on centralized command links, cloud compute, or a single master node. In contested theaters — active jamming, GPS denial, high packet loss — that dependency is a single point of failure and a single point of detection. Sever it, and a swarm degrades into disconnected, blind individual aircraft.
Today's counter-UAS doctrine is one interceptor against one threat. Saturation attacks are designed to win that math.
Talyra develops a decentralized, software-only coordination layer that lets a team of low-cost interceptor drones defend an area against a numerically superior attacking swarm. Every aircraft runs the same software — a shared local threat picture, market-based task allocation, and continuous re-planning under attrition. The swarm behaves as one distributed computer.
Task allocation by distributed consensus auction — grounded in the published consensus-auction research lineage. No node is special: remove any subset and the survivors re-converge on a conflict-free assignment.
The network is a spectrum, not a binary: full comms, constrained comms, receive-only, silence. Coordination quality degrades gracefully — never catastrophically — and emissions stay minimized by design.
The full coordination stack runs locally on low-power edge compute — no cloud, no base station, no external dependencies. GPS-denied and EW-contested operation is the design point, not an afterthought.
Platform-agnostic software on attritable airframes, integrating with existing OEM autonomy stacks. An asymmetric cost exchange — designed to scale from ten aircraft to hundreds.
Each interceptor fuses local sensing into a synchronized spatial picture shared peer-to-peer across the mesh — no aggregation server, no uplink required.
Interceptors bid on threat clusters in a distributed auction and converge on a conflict-free, many-on-many engagement plan — collaborative 1-vs-N, not 1-vs-1.
Losses on either side trigger automatic re-bidding. Coverage redistributes across the survivors, and the defense keeps its shape.
Talyra is developing decentralized counter-swarm autonomy in response to a U.S. Army SBIR topic on asymmetric collaborative counter-swarm defense (ARM26BX04‑NV008), following a simulation-first, Monte‑Carlo-validated methodology.
Area defense against saturation sUAS attacks for expeditionary and fixed sites — coordination that survives jamming, GPS denial, and attrition.
Protection of critical infrastructure — data centers, stadiums, utilities, airports — from uncooperative drones; multi-robot coordination middleware beyond the security domain.
Founded by engineers with distributed-systems and real-time autonomous-software backgrounds — proven ability to architect, build, and validate complex real-time systems end-to-end.