The counter-drone industry builds sensor-effector systems: detect, classify, destroy. Against distributed commercial drone swarms, interdiction will be incomplete. The question it leaves unanswered is what happens to logistics, movement, resupply, casualty evacuation, and staging when it is.
We work on that problem. How do you move, supply, repair, reposition, and sustain when the adversary can see everything you do?
The problem is old. Persian Royal Roads moved supplies through contested territory for two centuries using staged relay points and distributed authority. Roman logistics sustained campaigns across three continents through networked depots, redundant road systems, and local sourcing that reduced dependence on any single corridor. Partisan networks from Spain to Yugoslavia to Vietnam sustained operations under persistent surveillance by distributing, decentralising, and accepting attrition as a design parameter rather than a failure condition. The Ho Chi Minh Trail sustained logistics through six years of the most expensive sensor-to-shooter network ever deployed. Allied convoys sustained transatlantic supply lines through persistent U-boat interdiction. In every case, the architecture that survived was distributed, decentralised, redundant, attrition-tolerant, and rapidly reconstitutable.
The same problem is now studied at the other end of the technology spectrum. Autonomous systems research for planetary exploration — Mars surface logistics, lunar supply architectures — starts from the same constraint: no central coordinator can respond fast enough, communication is degraded or delayed, and the system must make routing and resource decisions locally with incomplete information. The engineering patterns are the same. Distribution. Local authority. Redundancy. Attrition tolerance. The scale changes. The physics of sustained operation under constraint does not.
We apply those patterns to the current threat environment, where commercial drone surveillance has made tactical movement observable by default.
In 2017, a patent was filed specifying a complete autonomous detect-track-capture architecture using coordinated drone swarms, built entirely from commercial components (US20200183429A1; UK national phase GB2578407B, granted). The architecture entered the public domain. The capability it described is now deployed on multiple fronts using commercial equivalents. That patent established the threat model.