U.S. Missile Defense Agency Launches FBM Radar Next to Counter Drone and Missile Threats

The U.S. Missile Defense Agency (MDA) has officially initiated plans for a new advanced radar system intended to succeed the widely deployed AN/TPY-2 radar. While the AN/TPY-2 is primarily recognized as the foundational sensor for the Terminal High Altitude Area Defense (THAAD) ballistic missile defense system, it also operates independently within broader integrated air and missile defense networks. However, recent combat experiences and targeted strikes by adversaries—such as Iran's successful targeting of static missile defense installations in the Middle East—have exposed critical vulnerabilities in these high-value, largely stationary assets. This stark battlefield reality has prompted the MDA to prioritize a highly mobile, survivable architecture capable of rapid relocation to evade incoming threats.

The Urgent Need for the FBM Radar Next

In response to evolving threat environments, the MDA has issued a formal call for “innovative prototype concepts” regarding the Forward-Based Mode (FBM) Radar Next. Traditionally, forward-based mode radars are deployed in semi-permanent sites to detect ballistic missiles shortly after launch. Although systems like the AN/TPY-2 and their associated trailer-mounted generators are technically road-mobile, they require significant logistical footprints and time to pack up, transport, and reestablish at alternate locations.

Modern adversaries now possess sophisticated tools, including long-range one-way attack drones, precise cruise missiles, and commercially enabled intelligence, surveillance, and reconnaissance (ISR) capabilities. These advancements have effectively flattened traditional operational sanctuaries. Attacks on installations in places like Jordan and the United Arab Emirates highlighted that static and semi-mobile radars are exceptionally vulnerable not just to high-end ballistic missiles, but also to asymmetric, low-cost drone swarms and near-field strikes. Consequently, the MDA's new program seeks to close this tactical gap by procuring a system engineered specifically for agile, distributed, and highly survivable operations.

Key Technical and Operational Requirements

The pre-solicitation notice for the FBM Radar Next outlines stringent performance, transportability, and survivability benchmarks that prospective defense contractors must meet. To ensure maximum operational flexibility in contested environments, the system must adhere to several core parameters:

• Strategic and Tactical Mobility: The radar must be fully transportable via C-17 military cargo aircraft and tactical ground vehicles, allowing for rapid deployment to austere forward locations.
• Rapid Setup and Teardown: The platform must become operational within hours of arrival and pack up within minutes to minimize exposure to counter-battery fire and enemy targeting.
• Advanced Target Discrimination: It requires high-sensitivity detection, persistent tracking, and precise discrimination of sophisticated threats amidst heavy electromagnetic clutter and contested electronic warfare conditions.
• Low Signature and Modular Architecture: The design must incorporate physical, thermal, and electromagnetic signature management, alongside modular, open-architecture systems that support single-aperture or distributed array configurations.

By shifting toward a more distributed concept of operations—potentially utilizing smaller, interconnected nodes rather than massive monolithic systems—the military hopes to reduce individual platform signatures, facilitate easier concealment, and enhance overall network resilience if individual nodes are disabled.

Strategic Implications and Production Scalability

The strategic fallout of losing critical early warning and tracking radars extends far beyond immediate tactical setbacks. Strategic radars serve as vital links in national defense and nuclear deterrence architectures, providing verification against large-scale strikes. Losing these sensors can severely compress decision-making cycles and introduce dangerous gaps in situational awareness. Furthermore, traditional procurement models have yielded limited numbers of exceptionally expensive platforms; for instance, prime contractor RTX has only manufactured a relatively small number of AN/TPY-2 units over decades, with unit costs reaching up to $300 million.

The MDA is therefore heavily emphasizing manufacturing ease, Design-for-Manufacturing-and-Assembly (DFMA) principles, and overall cost-efficiency for the FBM Radar Next. Ensuring a viable pathway to rapid, high-volume production will allow the U.S. military to cost-effectively replace or augment radar units in highly active forward-deployed theaters. As the Department of Defense continues to adapt to a transparent battlefield characterized by the democratization of space and asymmetric drone warfare, the development of agile, next-generation sensors represents a fundamental evolution in global air and missile defense strategy.

Bu haber, Ajans Savunma editoryal standartları çerçevesinde Yapay Zeka destekli algoritmalar tarafından orijinal kaynaktaki teknik verilere sadık kalınarak yeniden derlenmiştir. Orijinal Kaynak: The War Zone (Global)