July 23, 2026
The U.S. Army is advancing a new capability designed to give soldiers greater combat power while reducing the workload required to employ precision weapons. During this episode of Fed Gov Today, Lt. Col. Jim Lawson, Product Manager for Aviation Rockets and Small Guided Munitions at the Army's Tactical Aviation and Ground Munitions Project Office, and Dr. Shane Thompson, Program Manager for Multiple Simultaneous Engagement Technologies (MSET) at the Army Combat Capabilities Development Command Aviation & Missile Center, explain how the MSET program enables a single operator to control multiple missiles against one or several targets simultaneously. They also discuss the importance of designing technology around the soldier, partnering across organizations, and successfully transitioning innovative research into an operational Army program.
Thompson describes MSET as a suite of software applications that combines precision target acquisition with autonomous mission planning. The system allows missiles to identify and track designated targets while coordinating their flight paths and arrival times. Although the technology automates much of the engagement, operators retain the ability to intervene at any point to retask or adjust the mission if circumstances change. He says the result is a capability that enables one soldier to mass fires against high-value or dispersed targets without increasing operator burden.
Lawson explains that the Army is integrating MSET into its Long Range Precision Munition program, bringing a capability to the battlefield that previously did not exist. Rather than requiring multiple operators to control multiple weapons, a single operator can manage several missiles simultaneously. He notes that the program accelerated quickly after the Army released its Launch Effects Abbreviated Capabilities Development document in 2024, allowing the Army to build upon years of science and technology work already completed by Thompson's team.
Building the system required close collaboration between government laboratories and academia. Thompson explains that his team developed the Precision Target Acquisition Software while Johns Hopkins University Applied Physics Laboratory contributed the autonomy software responsible for mission planning, route coordination, and synchronized weapon arrivals. He says selecting the right partner involved evaluating organizations with mature autonomy expertise and extensive platform integration experience. Once responsibilities were divided, each organization focused on its area of expertise while working closely throughout development.
One of the program's defining principles is simplicity. Thompson says the team deliberately focused on reducing operator workload from the beginning because even the most advanced technology has little value if soldiers choose not to use it. Early demonstrations required operators to manually control multiple systems, creating a significant workload. Through iterative development, the team dramatically reduced the number of required interactions. In many scenarios today, the operator simply initiates the mission and monitors the engagement unless intervention becomes necessary. Thompson says the objective has always been to make the technology accessible and intuitive for the warfighter.
Lawson adds that this philosophy extends to the user interface. Because soldiers already use touchscreen-based Android Tactical Assault Kit systems in operational environments, integrating MSET into that familiar interface minimizes training requirements and allows soldiers to adopt the capability more naturally. Feedback from operational users continues to reinforce that decision.
The conversation also highlights recent testing at Fort Irwin, California, where the Army demonstrated launching the system from a Black Hawk helicopter. Lawson explains that the event allowed engineers to evaluate the system under demanding operational conditions while collecting valuable performance data. Although integrating weapons onto aviation platforms presents numerous technical challenges, he says the testing provides important information that will support formal qualification efforts moving forward.
Finally, both leaders discuss what makes MSET an example of a successful transition from research into a program of record, avoiding the Department of Defense's well-known "Valley of Death." Lawson credits a combination of quality technology, aligned funding, and committed transition partners. Thompson emphasizes that his team maintained continuous communication with the receiving program office throughout development, ensuring the technology evolved to meet real operational requirements. Both agree that collaboration across organizations, shared testing, and parallel development efforts help accelerate delivery of new capabilities to soldiers while reducing unnecessary duplication of effort.