Iranian Missile Strike Destroys U.S. THAAD Radar in Jordan — Satellite Images Reveal $500 Million AN/TPY-2 System Wiped Out in Major Blow to American Missile Defense

(DEFENCE SECURITY ASIA) — An investigation by CNN has confirmed that an Iranian missile attack has destroyed a United States AN/TPY-2 radar, the primary sensor of the Terminal High Altitude Area Defense (THAAD) system, at Muwaffaq Salti Air Base in Jordan, signalling a potentially transformative moment in the evolving strategic contest between Iran and the U.S.–Israel security architecture across the Middle East.

Satellite imagery released following the strike indicates that Iranian munitions successfully neutralized a radar asset valued at nearly USD 500 million (RM1.9 billion), a loss that significantly degrades the operational integrity of the deployed THAAD battery and exposes structural vulnerabilities in forward-deployed American missile defense infrastructure.

The development unfolded during the opening phase of the ongoing U.S.–Israeli military campaign targeting Iranian nuclear and military facilities, with Iranian retaliation focusing on the sensor networks and early-warning nodes that enable Washington’s layered missile defense architecture to intercept ballistic threats.

 

Within the emerging strategic narrative of the conflict, the destruction of the radar illustrates a shift toward precision counter-sensor warfare in which Tehran appears to prioritize blinding surveillance and tracking systems rather than merely overwhelming interceptors through missile saturation.

Investigative reporting released on March 5, 2026, indicates that Iranian munitions struck the radar complex located more than 500 miles from Iranian territory, demonstrating both the geographic reach and targeting sophistication required to penetrate heavily defended coalition airspace.

Satellite images shows a pair of 13-foot craters in the sand near the radar, suggesting that it may have taken multiple attempts to hit the system, which is split across five 40-foot trailers. All appeared to be destroyed or seriously damaged.

The attack has therefore triggered renewed debate among defense planners regarding the survivability of high-value missile defense sensors positioned within relatively predictable basing structures across the Middle East.

The AN/TPY-2 radar, widely regarded as the “eyes” of the THAAD interceptor system, performs the crucial tasks of long-range missile detection, trajectory tracking, warhead discrimination, and fire-control cueing for interceptors operating in the upper atmosphere and exo-atmospheric engagement envelopes.

Without the AN/TPY-2 radar functioning in its forward-based surveillance mode, the THAAD battery positioned at Muwaffaq Salti loses the sensor fidelity required to maintain wide-area ballistic missile coverage across Israel, Jordan, and the Levant corridor.

As N.R. Jenzen-Jones, Director of Armament Research Services, noted in remarks cited within the investigative report, “The AN/TPY-2 radar is essentially the heart of the THAAD battery, and the loss of even a single radar of this type would represent an operationally significant event.”

The satellite imagery documenting the aftermath now stands as one of the most consequential visual indicators yet that Iran’s retaliatory campaign is targeting the structural foundations of American missile defense networks rather than solely confronting kinetic interceptors in open airspace.

The US operates eight THAAD batteries, while the UAE operates two and Saudi Arabia one. This one was at the Muwaffaq Salti Air Base in Jordan, over 500 miles from Iran.

AN/TPY-2 Radar: The Half-Billion-Dollar Sensor Backbone of THAAD

The AN/TPY-2 radar, developed by Raytheon and integrated into the THAAD missile defense architecture, represents one of the most advanced ground-based ballistic missile tracking sensors currently deployed by the United States across contested theaters.

Operating in the X-band frequency spectrum, the radar utilizes an active electronically scanned array (AESA) architecture capable of detecting ballistic missile launches and tracking maneuvering warheads at ranges exceeding 3,000 kilometers in forward-based operational mode.

This forward-based surveillance capability enables early detection of missile launches across vast geographic distances, providing the sensor backbone that allows THAAD interceptors to calculate optimal intercept solutions within seconds of detection.

In terminal engagement mode, the radar shifts from wide-area surveillance to precision tracking, feeding real-time fire-control data to interceptors designed to destroy incoming ballistic threats during the final phase of their trajectory.

The system’s design incorporates gallium nitride semiconductor technology, which dramatically increases power output, signal clarity, and discrimination capability against complex targets such as decoys or maneuverable reentry vehicles.

According to the Missile Defense Agency’s 2025 budget documentation, each AN/TPY-2 radar unit carries a production cost approaching USD 500 million (RM1.9 billion), reflecting the technological sophistication embedded within its detection and signal-processing architecture.

Physically, the radar system is distributed across multiple 40-foot transportable trailers, which collectively house the phased-array antenna panel, high-capacity power generation units, advanced cooling systems, and command-and-control electronics.

This modular architecture allows the system to be rapidly deployed or repositioned, enabling U.S. missile defense planners to reposition sensors based on shifting threat vectors across different operational theaters.

However, the same modular structure also creates a spatially distributed physical footprint that may present multiple strike points if adversaries possess the targeting accuracy required to disable key components simultaneously.

Satellite images of the destroyed installation reveal multiple damaged trailers and surrounding blast craters, indicating that the Iranian strike likely targeted the radar array and associated support modules to ensure total operational failure.

Muwaffaq Salti Air Base: Strategic Hub of U.S. Regional Airpower

Muwaffaq Salti Air Base, located in eastern Jordan approximately 800 kilometers from Iran’s western frontier, has long served as one of the most strategically significant forward operating hubs for United States Central Command.

Originally used as a coalition staging ground for air operations against ISIS positions in Syria and Iraq, the base has gradually evolved into a major logistical and operational node supporting American expeditionary airpower across the Levant.

Recent satellite imagery captured in late February revealed a dramatic surge in aircraft presence at the facility, indicating a rapid buildup of U.S. airpower in response to escalating tensions with Iran.

The imagery showed more than 60 combat and support aircraft positioned on exposed tarmac areas, while additional aircraft were believed to be stored inside hardened aircraft shelters designed to reduce vulnerability to surveillance and attack.

Aircraft identified at the base included F-35A Lightning II stealth fighters, F-15E Strike Eagle strike aircraft, and A-10C Thunderbolt II close air support platforms, alongside drones, helicopters, and heavy cargo transports.

The rapid expansion of operations at Muwaffaq Salti was supported by at least 68 cargo aircraft landings, which delivered personnel, precision munitions, air defense equipment, and logistical supplies required for sustained operations.

New air defense systems, including additional Patriot surface-to-air missile batteries, were deployed to protect the base’s expanding operational footprint.

The geographic positioning of Muwaffaq Salti provides a critical strategic advantage because it allows U.S. aircraft to reach Iranian targets with relatively short flight times while remaining deep inside friendly territory.

This dual role as both a defensive sensor hub and an offensive strike staging area explains why the base became a focal point of Iranian retaliatory targeting strategies.

The destruction of the THAAD radar therefore represents not merely a technical loss but a disruption to the layered defensive architecture intended to shield the base from ballistic missile threats.

Iranian Precision Strike Campaign Against Missile Defense Sensors

The strike against the THAAD radar appears to be part of a broader Iranian operational strategy aimed at degrading the sensor and communication infrastructure supporting U.S. missile defense operations across the Middle East.

Reports indicate that Iranian strikes have targeted multiple radomes, radar installations, and satellite communications terminals across Bahrain, Kuwait, Qatar, and Saudi Arabia.

These attacks appear designed to degrade the command-and-control architecture that integrates early warning sensors, interceptor batteries, and airborne surveillance assets into a unified defensive network.

By targeting sensors rather than interceptors themselves, Iran’s operational logic appears focused on blinding detection systems, thereby preventing missile defense units from obtaining the targeting data required to engage incoming threats.

In the case of the Jordan strike, the successful destruction of the AN/TPY-2 radar indicates that Iranian forces were able to accurately locate and strike a high-value asset embedded within a heavily defended air base.

The satellite imagery shows two large impact craters measuring approximately 13 feet in diameter, suggesting that multiple munitions were used to ensure the destruction of the radar installation.

The use of multiple strike points implies a deliberate attempt to defeat hardened infrastructure and eliminate redundancy within the radar’s modular trailer architecture.

Although the exact weapons used in the strike remain uncertain, the targeting accuracy required to hit a mobile radar array indicates significant improvements in Iranian precision-guidance capabilities.

Defense analysts therefore interpret the strike as evidence that Iran has expanded its ability to conduct long-range precision attacks against high-value military infrastructure.

The implications extend beyond Jordan because the attack demonstrates that missile defense sensors positioned across the Gulf region may face similar vulnerabilities under sustained precision strike campaigns.

Parallel Strikes on THAAD Infrastructure in the United Arab Emirates

Commercial satellite imagery analyzed during the same time period identified parallel strikes against THAAD-related infrastructure in the United Arab Emirates, indicating a coordinated campaign targeting missile defense networks across multiple countries.

Two locations in the UAE, Ruwais and Al Sader, displayed visible damage to facilities associated with THAAD radar storage and support equipment.

In Ruwais, three separate buildings were struck, including specialized pull-through vehicle shelters designed to house radar trailers and maintenance equipment.

Satellite imagery shows burn marks and structural damage consistent with precision munition strikes against these facilities.

At the Al Sader site, four buildings including two radar storage structures sustained similar strike signatures.

Although it remains unclear whether the radars themselves were inside the buildings at the time of impact, the targeting pattern suggests a deliberate attempt to degrade missile defense readiness.

The UAE hosts U.S. military forces at Al Dhafra Air Base, which also supports coalition air operations across the Middle East.

The country operates its own THAAD interceptor systems, making its radar infrastructure a logical target within any Iranian strategy aimed at weakening missile defense coverage.

If confirmed, the coordinated strikes in Jordan and the UAE would represent one of the most extensive attacks against U.S. missile defense infrastructure in recent history.

Such operations indicate that Tehran’s campaign extends beyond immediate battlefield retaliation and instead seeks to systematically undermine the sensor network underpinning American regional deterrence.

Strategic Implications for U.S. Missile Defense Posture

The destruction of the AN/TPY-2 radar represents a significant operational challenge for the United States because only eight THAAD batteries currently exist within the U.S. inventory worldwide.

Redeploying a replacement radar will require transferring equipment from another operational theater, potentially creating temporary coverage gaps elsewhere.

Logistically, transporting and installing a new radar unit may take weeks or months depending on availability and deployment priorities.

During that period, the THAAD battery stationed at Muwaffaq Salti will operate with severely degraded detection and tracking capability.

This reduction in sensor coverage could complicate interception efforts against Iranian ballistic missile launches directed toward Israel or U.S. facilities across the region.

The strike also highlights the vulnerability of high-value but limited missile defense sensors positioned in predictable locations.

Defense planners may therefore need to reconsider whether future missile defense deployments should prioritize greater redundancy and distributed sensor networks rather than relying on a small number of extremely capable radar systems.

Another potential solution involves deeper integration with space-based missile detection systems, which are less vulnerable to localized kinetic strikes.

The incident therefore reinforces broader debates about how missile defense architectures should evolve in an era where adversaries possess increasingly accurate long-range strike capabilities.

As the conflict between Iran and the U.S.–Israel coalition continues to intensify, the loss of the radar at Muwaffaq Salti serves as a powerful reminder that even the most advanced missile defense systems can be strategically vulnerable.

The satellite images documenting the strike have therefore become an enduring visual symbol of the shifting dynamics within modern missile warfare, where precision strikes against sensors may prove as decisive as the interception of missiles themselves.