IN Brief:
- Curtiss-Wright has received approximately $40 million of Leidos contracts supporting IFPC Increment 2 production.
- Its contribution combines electromechanical actuation equipment with rugged small-form-factor mission computers for the mobile launcher system.
- Leidos has more than 100 IFPC launchers committed for delivery as the Army scales the programme towards higher-rate production.
Curtiss-Wright has received contracts worth approximately $40 million from Leidos to supply electromechanical actuation technology and rugged mission computers for production of the US Army’s Indirect Fire Protection Capability Increment 2 air-defence system. The awards place equipment from two Curtiss-Wright business areas into a launcher programme that is moving towards considerably larger production volumes.
IFPC Increment 2 is a mobile, ground-based air-defence system intended to counter threats including cruise missiles, rockets, and uncrewed aircraft. Curtiss-Wright will provide electromechanical actuation through its Aerospace & Industrial organisation and rugged computing through its Defense Electronics business, combining mechanical movement and mission processing within the same production programme.
The actuation equipment uses roller-screw and motor technology adapted to meet Army environmental and performance requirements. The system has to provide controlled movement across different loads, speeds, and positioning demands while remaining reliable after transport, deployment, vibration, temperature changes, and extended field use.
The computing portion uses rugged small-form-factor mission computers designed for platforms where space, weight, power consumption, thermal performance, and environmental resistance matter alongside raw processing capability. Curtiss-Wright identifies its DuraCOR 8044 architecture within the package, bringing an Intel Xeon-based processor into a chassis intended for military ground and other demanding applications.
Neither subsystem is particularly useful in isolation. A launcher depends on mechanical equipment positioning accurately, processors handling mission functions, communications linking the system into the wider air-defence network, and software coordinating those elements reliably. Production consequently has to preserve interface compatibility between equipment supplied by different companies rather than simply demonstrate that each box meets its own specification.
The awards arrive as Leidos expands IFPC production. In April, the company received a further $617 million from the Army for additional launchers, building on $356 million awarded in July and September 2025. Leidos says its IFPC production awards now total nearly $1.2 billion and that more than 100 launchers are committed for delivery.
That volume changes the industrial problem. Prototype programmes can absorb greater levels of manual intervention, specialist engineering attention, and individually managed parts. Production across more than 100 launchers requires stable supplier schedules, repeatable manufacturing processes, configuration control, inspection capacity, and a dependable route for incorporating engineering changes without disrupting units already moving through assembly.
Curtiss-Wright’s position beneath the prime contractor therefore matters beyond the value of its own contracts. Leidos cannot turn its launcher awards into accepted systems unless actuators, processors, structures, electrical equipment, communications hardware, software, and other components arrive in the correct configuration and at compatible rates.
The IFPC architecture is also intended to evolve as threats and interceptors change. That gives open interfaces and computing headroom practical value, but it also increases the burden on configuration management. New software, sensors, command-and-control functions, or effectors can alter requirements elsewhere in the launcher, creating integration work that continues after the initial production configuration has been established.
Actuation and mission computing face different qualification demands. The former has to demonstrate position, load, speed, durability, and environmental performance; the latter has to address processing, thermal behaviour, data interfaces, electromagnetic conditions, ruggedisation, and software compatibility. A delay or acceptance problem in either stream can affect availability of the complete launcher.
Leidos’s production figures also put the $40 million Curtiss-Wright award into proportion. It is a meaningful subsystem order but only one element of a programme with considerably larger prime-contract commitments. Curtiss-Wright has not disclosed the number of actuators or computers being supplied, so the contract value should not be converted into an assumed launcher quantity.
What the award does show is that equipment previously associated with system development is now entering a production supply chain. At that stage, technical performance has to be accompanied by procurement discipline: component availability, manufacturing yield, test throughput, documentation, obsolescence management, and delivery timing become as important to the prime contractor as specification compliance.
With more than 100 launchers committed, the programme’s immediate industrial challenge is to keep those supply streams aligned as production grows. Curtiss-Wright’s contracts put actuation and rugged computing inside that equation, where failure to deliver an apparently modest subsystem can hold up a considerably more expensive air-defence asset.
