Manned Ground Vehicle

The Optionally Manned Fighting Vehicle (OMFV) program is a central element of the Army's Next Generation Combat Vehicle modernization efforts. Its primary aim is to develop the XM30 Combat Vehicle, intended to replace the Bradley Infantry Fighting Vehicle within Armored Brigade Combat Teams (ABCTs). The XM30 is designed as an optionally manned platform, capable of operating with or without a crew based on mission requirements. This flexibility allows it to maneuver soldiers into advantageous positions for close combat and deliver decisive lethality through combined arms maneuvers.

A significant goal of the OMFV program is to integrate advanced technologies that enhance the vehicle's capabilities in terms of lethality, protection, mobility, and survivability. The XM30 will incorporate cutting-edge sensors, semi-autonomous systems, and robotics control to support soldiers in both mounted and dismounted operations. Additionally, the vehicle is optimized for various environmental conditions to ensure safety and effectiveness while reducing logistical burdens. The program emphasizes a modular open systems approach (MOSA) to facilitate the integration of emerging technologies as they become available.

The OMFV program also focuses on digital engineering and software development to create a comprehensive digital ecosystem for the XM30. This includes a cloud-based environment for software development, artificial intelligence, and machine learning applications using DevSecOps methodologies. The digital engineering efforts aim to streamline design processes and enable continuous assessment of contractor designs through modeling, simulation, and analysis. These initiatives are intended to identify and mitigate technical risks early in the development cycle.

Efforts in cybersecurity and electronic warfare integration are also part of the program to protect against evolving threats. This involves developing tools for cybersecurity testing and enhancing electronic warfare capabilities through programmable antennas and existing systems. The strategy ensures that the XM30 meets current operational needs while remaining adaptable to future challenges by incorporating scalable architecture and maintaining persistent modernization efforts.