IN Brief:
- Private developers can request access to five Army test ranges for missiles, drones, counter-UAS systems, and other weapons.
- The Army is targeting access within 30 days, compared with delays that have previously reached 12 to 18 months.
- Faster range access removes one acquisition bottleneck, but useful acceleration still depends on safety approval, instrumentation, representative testing, data quality, and a route from demonstration into production.
The US Army is opening five weapons test ranges directly to private companies, creating a faster route for developers of missiles, drones, counter-UAS systems, and other technologies to put hardware through military testing.
The service is targeting access within 30 days of a company submitting a request through a new online marketplace. Army Secretary Dan Driscoll has contrasted that target with waits that can extend from 12 to 18 months under existing arrangements, where access to suitable ranges can lag far behind the development cycle of emerging weapons.
The initial network covers Dugway Proving Ground in Utah, West Cibola Range in Arizona, Camp Shelby in Mississippi, Camp Grayling in Michigan, and the Multidomain Training Area associated with the Africa Multidomain Training and Experimentation Center in Morocco.
Companies do not have to hold an existing military contract before seeking access. That distinction is important because smaller developers can often finance prototype work but struggle to obtain the controlled airspace, impact areas, instrumentation, explosive handling, telemetry, and qualified personnel needed to produce credible evidence at weapon-system scale.
The Army’s first example involved Covenant Industries testing its Anthem cruise missile in Morocco. The demonstration provides a practical illustration of the model: a privately developed system can reach government range infrastructure earlier, allowing Army personnel to observe performance before the technology has travelled through a conventional acquisition programme.
Range availability is a less visible constraint than procurement funding, but it can become a decisive one. Missile and uncrewed-aircraft developers can perform substantial component, software, propulsion, and laboratory work privately, yet an integrated weapon eventually has to operate through a representative flight profile under controlled and instrumented conditions.
Those conditions are expensive to reproduce outside established military facilities. Long-range flight requires controlled airspace and safe impact areas, while live propulsion and warheads introduce additional explosive, environmental, and safety requirements. Telemetry and tracking systems have to record what happened rather than leaving programme managers dependent on a manufacturer’s own demonstration data.
A long wait for that infrastructure slows engineering as well as procurement. Flight tests normally generate design changes across propulsion, guidance, control software, aerodynamics, seekers, communications, or launch equipment. If another useful range slot is months away, the iteration cycle begins to resemble a traditional programme even where the underlying technology was developed rapidly.
A 30-day access target could therefore have a disproportionate effect on companies working in counter-UAS, where threat systems and operating techniques change quickly. Sensors, jammers, interceptors, and drones can lose relevance as frequencies, autonomy, navigation methods, communications links, and airframe designs evolve.
Missile developers face similar pressure. Bench testing can validate individual subsystems, but a weapon only becomes convincing when propulsion, guidance, control, communications, and structural performance remain stable in flight. More frequent access allows engineering teams to test a revised configuration while the personnel, suppliers, and design knowledge from the previous attempt are still in place.
Removing the scheduling barrier does not remove the technical rules surrounding a range event. Flight-safety documentation, spectrum approval, explosive handling, environmental controls, telemetry plans, test objectives, and emergency procedures still have to be completed if trials are to take place safely.
Nor does faster testing automatically improve acquisition decisions. A carefully designed demonstration can make immature hardware look persuasive if the target set, environmental conditions, electronic interference, or mission profile have been chosen to favour the system. Army test personnel still need representative scenarios, repeatable data, failure reporting, and access to raw measurements.
Instrumentation therefore matters as much as access. A range slot that produces little usable engineering data may accelerate publicity without accelerating qualification. Developers need enough information after a trial to understand why a system succeeded or failed and whether a design change has improved performance on the next attempt.
Earlier soldier involvement could provide another benefit. Systems brought onto military ranges before their design is frozen can be exposed to users while controls, interfaces, packaging, transport arrangements, maintenance access, or software can still be changed without extensive rework.
That feedback is particularly valuable for small defence companies whose engineering teams may understand the technology better than the conditions under which soldiers have to transport, operate, repair, and reload it. A system can meet its technical performance target and still fail operationally because it takes too long to set up, needs unsuitable support equipment, or presents an awkward interface under field conditions.
The new access model also reduces one structural advantage held by established contractors with long-standing programme offices and range relationships. Smaller companies still have to demonstrate manufacturing capacity, security, reliability, and sustainment before securing larger orders, but they gain a clearer route to generate government-observed test evidence.
The initiative will ultimately be judged against two measures. The first is whether companies actually obtain useful range time inside the 30-day target. The second is whether systems that perform well move more quickly into controlled qualification and procurement rather than joining an expanding catalogue of promising demonstrations.
For the Army, faster testing is only valuable if it shortens the complete route from prototype to fielded equipment. Opening the ranges removes one longstanding queue; test quality, contracting, production engineering, and manufacturing capacity still determine whether the hardware emerging from that queue can be bought in useful numbers.
