ESD Profile: General Atomics Aeronautical Systems, Inc. (GA-ASI)

Contents

The era of the Global War on Terrorism has given way to the return of high-technology combat, with advancement in uncrewed military systems taking center stage. General Atomics Aeronautical Systems, Inc. (GA-ASI) has been at the forefront of this transformation.

For decades, the company has delivered cutting-edge uncrewed aircraft systems that have changed the face of modern warfare. From persistent Intelligence, Surveillance, and Reconnaissance (ISR) to today’s emerging collaborative combat operations, GAASI’s  platforms are at the leading edge in defense and national security technology.

David R. Alexander, president of GA-ASI, has been instrumental in driving the company’s vision forward. Alexander has more than 40 years’ experience in unmanned aircraft, the majority spent in various engineering and leadership roles at GA-ASI.

He sat down with European Security & Defence to discuss uncrewed fighter jets and trends in defence technology.

Q: Your company has been a part of several firsts in uncrewed aviation and now you are at the forefront of developing Collaborative Combat Aircraft (CCA) with the U.S. Air Force. This is not your first revolutionary program. In your view, where do things stand? How far along is uncrewed fighter technology?

David R. Alexander: In June, the U.S. Air Force gave GA-ASI a production contract to begin building the FQ-42A. So that’s very exciting news for us. The CCA technology has matured to the point that we can now start putting the aircraft forward and soon will be operating them in large numbers.

You are correct: GA-ASI has achieved several “firsts,” and we haven’t forgotten our pedigree. Predator changed aviation history with what would be considered by today’s standards relatively simple technology. There is a straight line that runs between those early aircraft, the tens of thousands of operational hours we’ve amassed — most of them in combat — and the highly mature and advanced aircraft we’re building today, such as the MQ-9B SkyGuardian.

That’s the model for fielding a revolutionary new capability quickly: Build it fast, fly it in real-world operations, and improve as you go forward. We’ve taken the pilot out of the cockpit; we can be aggressive with leaning forward. We’re not putting any crews’ lives at risk. But we need to get these aircraft into the hands of warfighters who we know, from experience, drive innovation to places we can’t see from our vantage point. We’re out of the science experiment phase of this technology. We should behave accordingly. Every hour spent flying in realworld scenarios generates data that will push the technology forward and keeps us ahead of our potential adversaries.

Q: In the European market, GA-ASI has been especially vocal about Gambit 6 as an air-to-ground solution. Is Europe ready for CCAs?

David R. Alexander: Europe flies some of the most advanced aircraft in the world. It is absolutely ready for CCAs. In fact, I’d argue the strategic situation demands it. As I touched on before: This technology is not where it can be 10 years from now, but we’ll never get there if we don’t start fielding CCAs in numbers and operating them forward.

Let’s not lose sight of what is driving this requirement: The threat environment is being driven by powers that can put significant mass in the field, more than could be countered by crewed systems alone. The cost would outstrip the budget of even the world’s most wealthy nations.

Our company has flown more than 9 million hours in real-world operations. We’ve had a front-row seat to witness the almost unbelievable pace of change on today’s battlefield. We’ve seen the threat that long-range missiles, loitering munitions, and sophisticated integrated air defense present to even the best-equipped forces. To penetrate and neutralize those threats at the scale of industrialized high-tech warfare, augmenting crewed ground attack with uncrewed ground attack is the most potent and cost-effective course.

Q: You’ve said that the key to countering largescale threats in a cost-effective way is by fielding what are essentially autonomous fighter jets. Is that not quite an exquisite technology? How will that contain costs?

David R. Alexander: Our Gambit Series is third-generation technology based on two previous aircraft we built to iron out exactly the issues you raised. Gambit was always conceived as an aircraft that needed to be cost-effective and mass producible.

Each of the six variants we’ve announced to date share a common chassis, avionics, landing gear, etc., so we could produce them quickly and lower costs. That amounts to about 70 percent commonality between each mission-specific variant. And that effectively contains the expenses associated with producing multi-mission aircraft.

As for autonomy, the technology is further ahead than some presume. We’ve been advancing that capability through research and development with our Avenger aircraft — our first uncrewed jet — for several years now and we’ve made remarkable strides. We’re ready to go today, not 10 years and hundreds of millions of government technology development dollars from now.

Q: With so much emphasis being placed on small unmanned aerial vehicles, do you see risk in continuing to specialize in larger systems?

David R. Alexander: First off, we build a range of systems — some large and some small. The question with military systems is always: What do you want this system to do? If you want the full multi-domain capabilities that an MQ-9B can bring to bear, that drives a design that a small aircraft can’t match. Physics won’t allow it.

Now there is a middle ground. Say that all you want is a plane that takes off, carries weapons, and lands. Well, the heavier those munitions are, the more robust the aircraft needs to be. Building an aircraft with the range, payload capacity, endurance, comms, and basic sensors needed for safe flight is not an insubstantial cost. And if you are going to incur that cost, you may as well add on a few systems that make your aircraft more survivable and valuable as a sensor node operating forward, such as a signals intelligence suite. The cost of adding those features to the aircraft you are already building is much less than building and operating a second aircraft to operate in parallel with your weapons carrier.

We will build the aircraft the customer wants and needs. Of course, we’ll work with customers to tailor a solution that matches the capabilities they require to a price that meets their budget. But mission requirements are what drive the size and characteristics of aircraft, not the other way around. It’s been that way since the Wright Brothers first took off from Kitty Hawk.

Q: What’s next for GA-ASI as it continues to innovate in 2026?

David R. Alexander: We’re focused on staying ahead of the curve. For the MQ-9B we’re beginning initial flights with a new Airborne Early Warning and Control (AEW&C) mission package developed in conjunction with Saab. That is being developed specifically to counter some of the threats we’re seeing on the battlefield. We’re also busy developing a Short Takeoff and Landing (STOL) version of MQ-9B, which benefits from our work on Mojave STOL.

The Mojave is based on our Gray Eagle, in service with the U.S. Army. In 2023, we had the immense privilege of launching and recovering Mojave aboard the HMS Prince of Wales at sea in the Atlantic. We think a number of users see the need for a STOL SeaGuardian — the maritime version of MQ-9B, so we’re pushing on that front as well. We’re also forging ahead with FQ-42A testing and production to make it a fielded capability as quickly as possible.

Back to top ↑

Europe faces the most complex security environment since the end of the Cold War.

Adversaries are fielding integrated air defenses, long-range strike systems, and large inventories of advanced aircraft and missiles. In this environment, Uncrewed Aerial Systems (UAS) that are survivable, adaptable, and affordable at scale are becoming central to modern force design.

GA-ASI has developed the Gambit Series of autonomous jet aircraft to meet this challenge, with Gambit 6 focused specifically on high-end air-to-ground operations in contested airspace. Gambit 6 is designed for air-to-ground missions where traditional crewed aircraft face high risk, said GA-ASI Vice President of International Strategic Development Jamie Walters.“Gambit 6 was developed to attack one of the most complex problems facing militaries today: establishing air superiority in an era of proliferated advanced technologies,” he continued. “When even terrorist organizations can field sophisticated air defenses and long-range strike batteries, Europe and its allies must be poised to defend both military and civilian infrastructure should conflicts break out.”Walters said Gambit 6 combines survivability features, advanced autonomy, and precision weapons integration to support operations such as:

• • • Penetrating heavily defended airspace to locate and engage high-value targets
    • Suppression or Destruction of Enemy Air Defenses (SEAD/DEAD)
    • Time-sensitive strike against critical military infrastructure

Key attributes include:

• • • Advanced mission systems to operate in the presence of modern surface-to-air and ballistic missile threats
    • Electronic warfare capabilities to help counter integrated air defense systems and complicate adversary targeting
    • Precision-guided munitions integration to deliver accurate effects while limiting exposure

Gambit 6 can operate autonomously or as part of a broader crewed–uncrewed team, working alongside fourth- and fifth-generation fighters and other UAS, Walters noted, enabling European air forces to increase combat mass, impose dilemmas on adversary defenses, and create openings for coalition forces to exploit.

The Gambit Family: A Modular, Missionized Approach

The key to making Gambit 6 a cost-effective option is its place in GA-ASI’s Gambit family of systems, Walters said. Every Gambit is built around a modular common-core architecture, he said, noting that approximately 70 percent of key components — such as the landing gear, baseline avionics, and chassis — are shared across the series.

• • • According to Walters, this commonality:
    • Streamlines production and logistics
    • Reduces life-cycle and sustainment costs

Allows rapid tailoring of aircraft to specific missions The Gambit Series includes:

• • • Gambit 1 – Optimized for long-endurance ISR missions, with fuel-efficient engines and high-aspect wings for extended patrols in contested airspace
    • Gambit 2 – Focused on air-to-air combat, equipped with weapons to engage hostile aircraft and support air superiority
    • Gambit 3 – Designed for adversary air roles in training, reducing the cost and complexity of preparing aircrews for high-end threats
    • Gambit 4 – A stealth combat reconnaissance model with a tailless design, suited for high-risk ISR and targeting missions
    • Gambit 5 – Built for carrier-based operations, with structural and systems adaptations for maritime environments

Gambit 6 extends the family into the high-end air-to-ground and SEAD/DEAD mission space. Taken together, the series offers allied air forces a coherent, scalable portfolio spanning ISR, air-to-air missions, adversary training, stealth reconnaissance, maritime operations, and penetrating strike.

By leveraging a common design across multiple variants, the Gambit approach reduces the cost and complexity typically associated with multi-role, multi-domain aircraft while still allowing each variant to be optimized for its primary mission.

Autonomy, Integration, and European Operations

Gambit 6 was designed from the outset for collaborative operations, Walters explained. Its autonomy and open systems architecture support:

• • • Teaming with crewed fighters, where Gambit aircraft can conduct high-risk tasks, extend sensor coverage, or provide additional weapons capacity
    • Cooperation with other uncrewed platforms, sharing data and coordinating effects across multiple assets
    • Integration with NATO and national command-and-control networks, enabling use within combined and joint operations

“European forces need to be able to defend large areas, respond rapidly to crises, and operate as part of multinational coalitions,” Walters said. “This kind of flexible integration is increasingly important as Europe reckons with the possibility of renewed industrial-scale warfare.”

Industrial and Schedule Alignment for Europe

GA-ASI plans to make Gambit 6 airframes available for international procurement starting in 2027, with European missionized versions deliverable by 2029, Walters said.

GA-ASI intends to leverage its German affiliate, General Atomics AeroTec Systems GmbH (GA-ATS), for regional customization and configuration, assembly, and integration of mission systems as well as sustainment and support tailored to European regulatory and operational requirements, he continued.

“This approach supports closer industrial cooperation in Europe and provides a framework for future enhancements aligned with European priorities,” Walters concluded.

Back to top ↑

The MQ-9B SkyGuardian and SeaGuardian remotely piloted aircraft are poised to transform European defense, providing NATO and partner nations with unmatched versatility, interoperability, and cutting-edge capabilities to counter evolving threats.

A growing body of NATO nations have launched MQ-9B programs, including the United Kingdom, Canada, Belgium, Poland, Denmark, and Germany.

A senior executive at GA-ASI, which produces MQ-9B, attributes the momentum to the singular nature of the aircraft, noting that it both delivers long-range, high-endurance Intelligence, Surveillance, and Reconnaissance (ISR) capabilities and the ability to deploy effects across all domains.“MQ-9B is more than just a passive collector of intelligence; it can both detect and engage adversary forces,” said Jamie Walters, vice president of international strategic development for GA-ASI. “That, combined with the MQ-9 series’ unmatched track record across the full spectrum of operations, sets it apart from every other aircraft in its class.”MQ-9B hit a significant milestone last year when the United Kingdom certified the aircraft for operations over densely populated areas, an industry first for remotely piloted aircraft of its class. This certification highlights the platform’s safety, reliability, and compliance with NATO STANAG 4671 standards, ensuring seamless integration into allied airspace and command frameworks.The widespread adoption of Sky- Guardian and SeaGuardian will create opportunities to deepen ties between NATO countries, Walters said.“By standardizing MQ-9B as the platform of choice, NATO allies now have a path to jointly reduce costs, streamline training, and create new opportunities for joint operations and sustainment,” he added.

Versatile and Modular

Walters described the MQ-9B as “the ultimate multi-mission platform,” capable of addressing a broad spectrum of operational requirements today, and the list keeps growing as GA-ASI continues to expand its capabilities through modular mission packages.

The aircraft features nine external hardpoints that can carry up to 4,750 pounds (2,155 kilograms) of payload, along with an internal bay supporting an additional 800 pounds (363 kilograms).

This robust payload capacity enables the MQ-9B to integrate advanced sensors, communications systems, and even long-range weapons, ensuring it remains relevant across a variety of missions.

A key advantage of the MQ-9B is its open architecture system, which allows nations to integrate sovereign payloads and mission systems.“The MQ-9B’s modular design enables our customers to tailor the platform to their unique operational needs while supporting their domestic industries,” Walters said.For example, the SeaGuardian variant includes a 360-degree surface-search radar, an automatic identification system, and a complete anti-submarine warfare capability that deploys and monitors sonobuoys. This allows the aircraft to both track and launch torpedoes at positively identified enemy submarines.Meanwhile, the SkyGuardian variant excels in overland missions, leveraging its proven ability to fly safely over populated areas.This adaptability ensures the MQ-9B remains a future-proof investment for allied nations, Walters noted, adding that its ability to operate in diverse environments makes it a true multi-domain solution.“The MQ-9B’s flexibility allows it to address today’s challenges while remaining ready to meet the demands of tomorrow,” he continued.

Innovations and Advancements

Walters went on to say that GA-ASI isn’t content to rest on the laurels of MQ-9B’s success.

“At heart, we’re engineers constantly looking at new ways to leverage the tools we create to solve difficult problems,” he said. One example is the MQ-9B’s Airborne Early Warning and Control (AEW&C) mission package being developed in collaboration with Saab.

This cutting-edge radar pod transforms the MQ-9B into a persistent, cost-effective early warning platform capable of detecting cruise missiles, drone swarms, and other aerial threats.

“The AEW&C package is a big deal for NATO allies,” Walters said. “It’s a way to both extend the reach and persistence of the existing crewed AEW&C aircraft, and it can serve as a smaller-scale organic AEW capability for nations where an exquisite crewed system is out of reach.”

GA-ASI is also integrating advanced long-range weapons, such as KONGSBERG’s Joint Strike Missile and Lockheed Martin’s Long Range Anti-Ship Missile, further enhancing its multi-domain capabilities.

These systems ensure the platform is equipped to address threats across land, air, and sea with precision and lethality, Walters said.“The MQ-9B comes with some integrated survivability features that keep it relevant, standing in against highly capable adversaries. But the best way to deal with threats such as integrated air defenses is to eliminate them before they have a chance to shoot,” Walters said.“That keeps MQ-9B safe and, more importantly, it protects the brave men and women operating crewed systems in enemy skies.”The adoption of MQ-9B across Europe means that the SkyGuardian and SeaGuardian will be a mainstay of NATO and its partner nation force structure for years to come. As the threats evolve, so will the aircraft, Walters said.“The MQ-9B is not just one thing. And even though we built it, I wouldn’t begin to tell you I know all the ways it will be used as it becomes integrated into force structures around the globe,” he said. “What I know is that GA-ASI is committed to maintaining MQ-9B as a relevant and difference-making capability for as long as it remains in service.“That’s what we’ve done for our entire company history, and we don’t intend to change.”Back to top ↑