Swarm from a Container: DARPA Begins Developing Mobile Launch Systems for UAVs
The Pentagon continues to develop unmanned AviationBoth the aircraft themselves and their support systems are being developed at his request. As part of one of these projects, the Defense Advanced Research Projects Agency (DARPA) is beginning work on a containerized launch system that should enable the deployment and use of various types of UAVs in a wide range of missions.
Information request
In mid-April 2026, a request for information (RFI) numbered DARPA-SN-26-33 was posted on the government contracting portal SAM.gov. The document was published by DARPA's Tactical Technology Office (TTO). The deadline for accepting applications is 30 days, ending May 15, 2026, which is consistent with the agency's standard practice for documents of this type.
According to published materials, DARPA plans to explore containerized unmanned aerial systems (UAS). The agency hopes to develop and test such technology with contractors. If successful, the project will be further developed and could be included in rearmament plans.
At this stage, DARPA has only formulated the basic requirements for advanced UAS and their components. The initial stages of the program plan to evaluate the concept itself and its potential for military use. This will then be followed by detailed technical development, seeking optimal solutions.
After the solicitation process closes, DARPA will select a group of participants and award limited-price contracts for preliminary design work. The timeline for this work and the entire program as a whole has not yet been determined.
Containerized launcher concept by UVision Air Ltd.
Technical requirements
The project plans to create a fully functional UAS, including all necessary components: the UAV itself with various payloads and functions, launch systems, and control and communications systems. The emphasis is on the supporting infrastructure—the launch systems and control systems. These components are expected to unlock new capabilities; the choice of specific UAV models is secondary.
Prospective UAS should include unmanned aircraft, helicopters, and copters belonging to groups 1–3 of the American classification. Group 1 includes UAVs with a takeoff weight of up to 20 pounds (≈9 kg), Group 3 includes vehicles weighing less than 1320 pounds (less than 600 kg); heavier UAVs are classified as Group 4.
One of the key objectives of the RFI is to develop a containerized launcher capable of carrying a large number of UAVs. It can be constructed using a standard 20- or 40-foot ISO container, a 463L pallet, or other platforms compatible with standard vehicles. This simplifies transportation and deployment of the system.
The container or platform must accommodate the maximum possible number of transport and launch containers or other launch devices. Rapid launch preparation is required; for vehicles of the appropriate class, a return capability is provided.
Placing a UVision Air Ltd. container on a sea platform
In addition to launchers, the system must include a power supply, communications equipment, and an onboard control system—almost the full complement of components found in a modern UAS. The exception is the operator console, which is located separately, for example, in the cab of a tractor-trailer.
Single and group launches
The container UAS's onboard control system must be connected to the operator console. It is intended to be used to input flight programs into the UAVs on the launch pads and control the launch. Direct remote control is also possible.
The UAS must be capable of both single launches and group launches, using "swarms." As part of a group, the vehicles can perform different functions: some conduct reconnaissance, others engage targets, and still others carry weapons. EW or repeaters.
Of particular interest is the simultaneous operation of multiple UAS. They must coordinate their actions and distribute tasks, dispatching a large number of UAS to a given area, including those divided into several "swarms" with different roles. This mode, according to DARPA, should expand the tactical capabilities of units.
Context: What the US and Abroad Already Have
The DARPA program fits logically into the line of American developments in recent years, rather than starting a new direction. The US Air Force is practicing dropping swarms of winged UAVs from transport aircraft under the Rapid Dragon program, the Army and Marine Corps are using loitering munitions of the Switchblade and ALTIUS families, and the AFRL Golden Horde program is developing swarm-based munitions. AeroVironment, Anduril, and several other companies are offering containerized launchers in various configurations; these manufacturers are among the likely candidates for participation in the RFI, along with Kratos, Shield AI, and General Atomics (for the upper end of Group 3).
Additional context is the Agile Combat Employment (ACE) concept, which the US Air Force has been developing since 2021. It envisions dispersed basing with rapid deployment to airfields and temporary sites. An autonomous container with its own power supply, communications, and launchers fits well into this model: it doesn't require fixed infrastructure and is compatible with standard transport logistics. From this perspective, the RFI appears to be an attempt to systematize existing solutions into a unified architecture, rather than a catch-up effort.
Abroad, China and Israel are the most active in developing similar systems. Several Chinese companies have demonstrated containerized systems with dozens or even hundreds of UAVs capable of formation flight; however, to date, these systems are used primarily for entertainment rather than military purposes. Israel's UVision is mass-producing Multi-Canister Launchers (MCLs) for the Hero family of loitering munitions. Some UVision systems are already in service in the US under the OPF-M program; a system based on a standard ISO container with 126 launch cells has also been developed in collaboration with Rheinmetall.
The Ukrainian Operation "Spiderweb"—a suicide drone strike on strategic airfields using containers—is worth mentioning separately. It has no direct connection to the DARPA concept: the container was a means of covert delivery, a one-time installation without a network control system or swarm autonomy. The Russian side classified these actions as an act of terrorism; however, from an engineering perspective, the episode demonstrated the very possibility of covertly deploying launch vehicles in a container form factor—that is, the applicability of the approach embodied in the DARPA concept.
A Chinese-developed container system enables UAV takeoffs before "demonstration performances." Photo by DAMODA
Limitations of the concept
Container-based architecture addresses the challenges of autonomy and logistics, but it doesn't eliminate a number of fundamental issues. A stationary container with dozens of launch cells is a large and visible target for fire and air attack; after the first salvo, the position is almost inevitably compromised. Swarm operations require reliable communications and navigation, while modern electronic warfare systems are capable of jamming both command and control channels and GNSS. Finally, the range and payload of Group 1 UAVs limit their operational range and the type of missions they can perform—they are a tactical, not an operational, tool.
Conclusions
The US industry possesses most of the technologies necessary to implement the concept—individual launchers, loitering munitions, and group control algorithms have already been developed. The question of integrating them into a unified container architecture designed for use with different platforms and within multiple systems simultaneously remains open. It is this system integration challenge, rather than the creation of individual components, that determines the true complexity of the program.
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