Army Contracting Command – Redstone Arsenal awarded Lockheed Martin Missiles and Fire Control a $61,000,000 cost-plus-incentive-fee contract on May 15, 2026, for development and demonstration of the Missile Segment Enhancement Containerized Launcher and the RIG-360 System, including flight test, production of three RIG-360 Integrated Assemblies, and a launcher capability demonstration. Work will be performed in Grand Prairie, Texas, with completion expected by May 2027. Funding includes Army procurement and research, development, test, and evaluation dollars.
The PAC-3 MSE Containerized Launcher Concept
The Patriot Advanced Capability-3 Missile Segment Enhancement is the Army's current top-tier ballistic missile defense interceptor, combining a hit-to-kill kinetic energy warhead with an active radar seeker and a divert and attitude control system that allows last-second course corrections against maneuvering targets. The MSE upgrade extended the engagement envelope of the baseline PAC-3 against medium-range ballistic missiles, cruise missiles, and theater ballistic missiles, and is the standard configuration for new production interceptors delivered to U.S. and partner-nation Patriot batteries.
The containerized launcher represents a significant evolution in PAC-3 MSE deployment flexibility. Current Patriot fire units use the M901 Launching Station, a dedicated military wheeled vehicle integrated into the Patriot battery architecture. A containerized launcher would allow PAC-3 MSE interceptors to be fired from standard ISO shipping containers that can be transported on commercial trucks, rail, or vessels — enabling rapid deployment to austere locations without pre-positioned Patriot battery equipment and complicating adversary targeting by dispersing interceptor storage and launch points.
Containerized missile launchers have become a significant area of DoD investment following observations of how Ukraine's dispersed and mobile air defense assets performed against Russian targeting. The ability to hide and rapidly reposition missile launchers using standard logistics infrastructure makes them harder to locate, track, and strike in contested environments.
RIG-360 System Development
The RIG-360 system, based on the contract description's reference to three Integrated Assemblies, appears to be a 360-degree radar integration or launcher positioning system that enables the containerized PAC-3 MSE launcher to engage threats from any azimuth without the fixed orientation constraints of a standard shipping container. This omni-directional capability is essential for a dispersed containerized launcher concept, since a launcher fixed in the orientation of its transport container would have a constrained engagement sector that could be exploited by adversaries approaching from outside that sector.
The cost-plus-incentive-fee structure is appropriate for development work at this stage. CPIF gives Lockheed Martin reimbursement for allowable costs while creating a financial incentive for efficient performance through a formula that increases or decreases fee based on cost outcomes relative to target. The one-year performance period through May 2027 and the flight test requirement suggest this is an advanced development contract aimed at proving the technical feasibility of the containerized launcher before any production decision.
What It Means for Contractors
The containerized launcher development contract is part of a broader trend toward distributable, logistics-friendly missile defense systems that do not depend on large, visible battery deployments. Firms with expertise in containerized system integration, launch vehicle mechanical engineering, and environmental protection systems for missiles stored in commercial containers are well positioned to contribute to this and related programs. The RIG-360 integration concept also creates opportunities for radar and sensor firms, since a 360-degree engagement capability requires azimuth-agnostic sensor architecture that is more complex than a sector-oriented battery radar.
Containerized Missile Defense and the Distributed Lethality Concept
The PAC-3 MSE Containerized Launcher development reflects a broader Army air and missile defense modernization concept that emphasizes distributing interceptor capacity across dispersed, survivable positions rather than concentrating it in recognizable battery configurations that can be targeted. Traditional Patriot battery deployments — with their distinctive radar vehicles, launcher stations, engagement control stations, and generator vehicles arrayed in a characteristic footprint — are increasingly vulnerable to adversary ISR systems that can identify battery positions from commercial satellite imagery, social media posts, or signals collection and queue precision strike weapons against them.
A containerized launcher addresses this vulnerability by removing the most tactically obvious element of a Patriot battery — the dedicated launcher vehicle — and replacing it with an asset that is indistinguishable from commercial freight during transit and storage. A shipping container loaded with PAC-3 MSE interceptors and the RIG-360 launcher system can be moved by commercial truck, positioned at an unprepared site, and made ready to fire with a much smaller logistics signature than deploying a full Patriot battery. Adversary targeting systems looking for Patriot launchers based on vehicle signatures, electronic emissions, or thermal signatures would need to search a much larger area and identify the containers from among the millions of similar containers moving through commercial supply chains.
The flight test requirement in this contract is essential for certifying the containerized launcher as a qualified firing platform for PAC-3 MSE interceptors. Launching a missile from a containerized system introduces different structural loads, exhaust gas management challenges, and container thermal stresses than launching from the M901 station that the interceptor was designed around. Flight test data will validate the new launch environment against the missile's specifications and provide the performance envelope data needed for an Army type classification decision that allows the containerized launcher to be fielded to operational units.
The RIG-360 system's 360-degree engagement capability likely uses either a motorized rotation platform that turns the entire container to the desired azimuth, or a system that raises the missile canisters to a vertical or near-vertical orientation from which the missile's own divert and attitude control system handles azimuthal engagement. Each approach has different weight, power, and response time tradeoffs that the development phase will need to resolve against the Army's tactical performance requirements. The Army's engagement timeline — the time from initial threat detection to interceptor launch — is a key performance parameter driving both the mechanical design and control software of the RIG-360 positioning system. Meeting this timeline while satisfying commercial shipping transport constraints, storage safety requirements for the interceptors, and tactical survivability standards represents the central engineering challenge that the RIG-360 development phase must resolve before any production decision can be made.
