U.S. Mojave Drone First in Class to Operate from Aircraft Carrier Enabling Sea Based Strike.

The U.S. Mojave drone has become the first in its class to operate from an aircraft carrier, opening a new pathway for sea-based strike and persistent air support without relying on manned platforms. This breakthrough strengthens naval power projection by enabling distributed operations and extending reach in contested maritime environments.

Mojave’s short takeoff and landing capability allows it to launch and recover from confined carrier decks while carrying operational payloads for ISR and strike missions. This gives joint and special operations forces a flexible, survivable tool aligned with the shift toward autonomous systems and dispersed naval warfare.

Related Topic: U.S. Mojave UAS Expands into Drone Hunter and Air Defense Suppression Roles

Mojave STOL unmanned aerial vehicle pictured on the flight deck of the Royal Navy aircraft carrier HMS Prince of Wales during a landmark trial on November 15, 2023. During the demonstration conducted off the U.S. East Coast, the remotely piloted aircraft successfully executed a short takeoff, deck circuits, and a full recovery landing, marking the first time a UAS of its class operated from an aircraft carrier. (Picture source: British MoD)

The Mojave unmanned aircraft’s short takeoff and landing performance allows it to launch and recover from confined decks while carrying meaningful payloads, reducing dependence on large runways or vulnerable forward bases. This positions Mojave as a flexible force multiplier for joint and special operations, aligning with broader trends toward autonomous systems, survivability, and dispersed maritime operations.

The development was concretely demonstrated on November 15, 2023, when GA-ASI conducted a first-of-its-kind carrier operation aboard the British Royal Navy aircraft carrier HMS Prince of Wales while underway off the U.S. East Coast. Controlled by an onboard aircrew, Mojave executed takeoff, deck circuits, approaches, and a full-stop landing, validating its integration into carrier aviation and confirming its operational relevance for sea-based expeditionary missions.

Mojave STOL is derived from the MQ-1C Gray Eagle lineage but redesigned with an emphasis on expeditionary operations. The aircraft features a high-aspect-ratio wing with leading-edge slats and double-slotted flaps, optimized for extreme low-speed lift and short-field performance. Its reinforced landing gear and maritime-adapted configuration support repeated deck operations, with demonstrated takeoff runs of roughly 150 meters, depending on payload and environmental conditions.

Mojave STOL UAS showcased at AUSA 2025 as one of the top U.S. defense innovations, highlighting its unique aircraft carrier capability, heavy strike payload, and expeditionary operations from austere and maritime environments.

From a technical standpoint, Mojave retains core performance characteristics aligned with the Gray Eagle family while adapting them for STOL operations. The aircraft operates at altitudes up to approximately 25,000 feet, providing a balance between survivability and sensor effectiveness. Endurance exceeds 24 hours in ISR configurations, enabling persistent coverage, while its operational radius is estimated in excess of 1,500 kilometers depending on payload and mission profile. This combination of altitude, endurance, and range allows Mojave to maintain long-duration presence over contested areas while remaining outside many short-range air defense threats.

Powered by a turboprop engine in the 450-shaft horsepower class, Mojave is engineered to carry substantial payloads relative to its size. It can be configured with up to 16 AGM-114 Hellfire missiles or equivalent precision-guided munitions, alongside a full suite of mission sensors including electro-optical/infrared (EO/IR) systems, synthetic aperture radar with ground moving target indication (SAR/GMTI), and signals intelligence packages. The platform’s payload capacity is estimated at over 1,500 kilograms across internal and external stations, enabling simultaneous ISR, strike, and electronic warfare roles.

The ability to launch and recover from aircraft carriers marks a critical shift in naval aviation doctrine. Unlike rotary-wing UAVs, Mojave offers fixed-wing endurance and higher transit speeds, enabling wider area coverage and faster response times. When deployed from carriers or amphibious ships, Mojave can extend sensor coverage deep into contested zones, providing over-the-horizon targeting, maritime domain awareness, and real-time battlefield intelligence to fleet commanders.

The platform is engineered to support a wide spectrum of missions, including armed reconnaissance, counter-UAS operations, electronic warfare, and signals intelligence. Its modular open architecture enables rapid integration of mission systems, including electronic attack payloads and communications relay nodes. In high-threat environments, Mojave can execute hunter-killer profiles by detecting, tracking, and engaging targets autonomously or in coordination with manned platforms, significantly compressing engagement timelines.

Mojave’s STOL design also enables operations from austere and improvised locations such as island beaches, jungle clearings, and highways. This flexibility aligns with U.S. Army and Marine Corps concepts of expeditionary advanced base operations (EABO) and multi-domain operations (MDO), where forces must rapidly deploy and reposition across dispersed environments. By eliminating dependence on fixed airfields, Mojave enhances survivability, reduces logistical burden, and complicates adversary targeting strategies.

A key feature of the system is its integration of open architecture, autonomy, and machine learning. These technologies enable onboard data processing, reducing reliance on vulnerable satellite communications and enabling faster decision-making at the tactical edge. Mojave’s compatibility with advanced teaming concepts, including air-launched effects and manned-unmanned teaming (MUM-T), enhances its role within distributed and network-centric warfare architectures.

The logistics role of Mojave is equally significant. With its high payload capacity, the platform can conduct contested resupply missions, transporting ammunition, fuel, or medical supplies to forward units operating in denied environments. This capability reduces exposure of manned assets and directly supports sustained operations in high-risk theaters.

Industrial and procurement implications are also notable. Mojave leverages existing Gray Eagle infrastructure and support networks, reducing development risk and lifecycle costs while accelerating fielding timelines. Its demonstrated compatibility with naval operations may influence future U.S. Navy and Marine Corps unmanned aviation requirements, particularly for expeditionary sea basing concepts. Related developments can be explored in [Army Recognition coverage of U.S. UAS programs], [analysis of Gray Eagle operational upgrades], and [reporting on naval drone integration initiatives].

From an operational perspective, U.S. GA-ASI Mojave STOL bridges a critical gap between land-based tactical UAVs and carrier-based aviation. Its combination of high payload capacity, long endurance, altitude flexibility, and minimal runway requirements creates a survivable and scalable force multiplier. As peer competition intensifies, particularly in the Indo-Pacific, Mojave enables distributed forces to generate combat power from both sea and austere land bases, strengthening deterrence through increased reach, persistence, and operational unpredictability.

Written by Alain Servaes – Chief Editor, Army Recognition Group
Alain Servaes is a former infantry non-commissioned officer and the founder of Army Recognition. With over 20 years in defense journalism, he provides expert analysis on military equipment, NATO operations, and the global defense industry.