U.S. Marine Corps to Field MQ-58 Valkyrie Collaborative Combat Aircraft With F-35B By 2029.

The U.S. Marine Corps is advancing a new class of Collaborative Combat Aircraft based on the MQ-58 Valkyrie to operate alongside crewed jets in contested airspace. This effort aims to expand combat mass, reduce pilot risk, and maintain operational reach against increasingly capable air defenses.

The MQ-58-derived platform is designed to perform missions such as reconnaissance, strike support, and electronic warfare while teaming with manned aircraft. Its planned introduction by 2029 signals a shift toward distributed, semi-autonomous airpower that enhances survivability and strengthens force projection in future high-intensity conflicts.

Related Topic: U.S. Marine Corps Selects XQ-58 Valkyrie Drone to Team with F-35s in Future Air Combat

An XQ-58A Valkyrie unmanned aerial vehicle launches at Yuma Proving Ground on Dec. 9, 2020, demonstrating data exchange with F-22 and F-35 aircraft through an open architecture network. (Picture source: U.S Air Force)

At the core of the initiative lies the transition from earlier experimental configurations toward a conventional takeoff and landing variant of the Valkyrie. Developed by Kratos, the XQ-58A Valkyrie is a low-cost, runway-independent unmanned air vehicle designed to operate with a high degree of autonomy, typically exceeding 3,000 nautical miles in range while flying at high-subsonic speeds. Its original configuration relied on rocket-assisted takeoff, allowing launch from austere sites without traditional infrastructure, but this approach imposes constraints on turnaround time and reusability.

The program builds on earlier experimentation conducted under the Penetrating Affordable Autonomous Collaborative Killer Portfolio, which relied on rocket-assisted launch configurations and concluded a series of test flights in 2024. According to statements delivered by U.S. Marine Corps officials during the Modern Day Marine conference in April 2026, later reported by The War Zone, the service is now moving toward a conventional takeoff and landing configuration, with prototype deliveries targeted for 2029. This trajectory remains consistent with the Marine Corps Aviation Plan 2026, which identifies the MQ-58 as a priority capability within a broader transition toward distributed and networked air combat operations.

The program falls under the Marine Air-Ground Task Force Uncrewed Expeditionary Tactical Aircraft effort, itself rooted in earlier experimentation conducted through the Penetrating Affordable Autonomous Collaborative Killer Portfolio. That earlier phase relied exclusively on rocket-launched Valkyries, culminating in a series of test flights completed in 2024. More recent trials, including payload integration tests conducted at China Lake, focus on validating mission systems that will define the drone’s operational role.

According to program officials, the first conventional takeoff flight of the MQ-58 is expected during the summer of 2026. The timeline then leads toward the delivery of prototype aircraft to Marine Operational Test and Evaluation Squadron One (VMX-1) at Yuma by 2029. This unit, responsible for developing tactics and validating new aviation capabilities, will play a central role in defining how these drones integrate with the broader force.

Beyond its airframe evolution, the Valkyrie’s modular architecture remains a key feature. The drone includes an internal weapons bay capable of carrying munitions such as the GBU-39 Small Diameter Bomb, as well as external hardpoints for additional payloads. It has also been associated with the integration of the AIM-120 Advanced Medium Range Air-to-Air Missile, offering beyond-visual-range engagement capability, typically exceeding 100 kilometers depending on launch conditions. In parallel, Kratos is developing the Ragnarok miniature cruise missile, designed to fit within the Valkyrie’s internal bay and provide precision strike options at extended ranges.

Sensor integration is expected to evolve alongside payload development. While detailed configurations remain undisclosed, the MQ-58 is designed to host electronic warfare suites, data links, and potentially distributed sensing capabilities, enabling it to function as both a strike asset and a node within a wider combat network. This aligns with the Marine Corps’ initial focus on electronic warfare missions, where the drone can disrupt adversary radars, communications, and targeting systems while operating at standoff distances.

In operational terms, the introduction of the MQ-58 alters the way Marine aviation approaches contested airspace. Paired with the F-35B Lightning II, a short takeoff and vertical landing fighter equipped with advanced sensor fusion and stealth characteristics, the drone can extend the reach of the formation while absorbing risk in high-threat zones. The F-35B’s AN/APG-81 active electronically scanned array radar and distributed aperture system allow it to detect and track targets over long distances, while the MQ-58 can act as a forward sensor or weapons carrier, relaying data through secure links such as Link 16 or more advanced architectures.

This manned-unmanned teaming concept enables several tactical effects. The drone can conduct suppression of enemy air defenses by drawing fire or delivering electronic attack, thereby preserving the survivability of crewed aircraft. It can also carry additional weapons, effectively increasing the magazine depth of the formation without requiring additional pilots. However, constraints remain. The reliance on runways for recovery, even in the CTOL configuration, introduces vulnerabilities in dispersed operations, and the integration of autonomous decision-making within complex rules of engagement continues to raise technical and doctrinal questions.

Looking beyond the MQ-58, the Marine Corps is exploring alternative designs that could offer shorter takeoff distances or even vertical takeoff capabilities. Concepts such as tail-sitting jet drones or runway-independent systems would align more closely with the expeditionary ethos of Marine aviation, particularly in the Indo-Pacific, where dispersed basing is a central assumption. Industry partners, including General Atomics, Anduril, and Northrop Grumman, are already involved in shaping these potential follow-on systems.

The trajectory of the Marine Corps’ CCA program reflects a wider shift within U.S. and allied air forces toward distributed, networked combat architectures. By integrating relatively low-cost autonomous systems into frontline units, the Corps is testing a model that could redefine force structure, balancing high-end crewed aircraft with scalable uncrewed assets. This approach also resonates internationally, as competitors such as China and Russia invest in similar concepts, potentially accelerating an emerging competition in autonomous air combat.

Written By Erwan Halna du Fretay - Defense Analyst, Army Recognition Group
Erwan Halna du Fretay holds a Master’s degree in International Relations and has experience studying conflicts and global arms transfers. His research interests lie in security and strategic studies, particularly the dynamics of the defense industry, the evolution of military technologies, and the strategic transformation of armed forces.