Defense & Military
Hanwha Invests in Firehawk to Advance 3D Printed Rocket Motors
Hanwha Defense USA partners with Firehawk Aerospace to accelerate 3D printed solid rocket motor production, boosting US defense supply chains.
A New Era in Propulsion: Hanwha’s Strategic Investment in Firehawk Aerospace
In the world of defense and aerospace, advancements in Propulsion technology are the bedrock of military capability. The ability to launch faster, more reliable, and more effective munitions is a critical component of national security. Recently, the industry has turned its attention to a significant development: a strategic Investments by Hanwha Defense USA, a subsidiary of the South Korean giant Hanwha Aerospace, into the Dallas-based innovator, Firehawk Aerospace. This move is more than just a financial transaction; it signals a pivotal shift toward modernizing the very foundation of rocket and missile systems.
The collaboration aims to accelerate the development and production of Firehawk’s groundbreaking 3D-printed solid rocket motors. This technology stands to address long-standing vulnerabilities within the U.S. defense industrial base, particularly concerning the supply chain for energetics and munitions. For decades, the production of solid rocket propellant has relied on traditional, often slow and hazardous, Manufacturing processes. Firehawk’s approach promises to upend this status quo, offering a faster, safer, and more cost-effective alternative that could redefine military readiness for the United States and its allies.
As we explore this Partnerships, it becomes clear that its implications extend far beyond the two companies involved. It touches upon key themes of technological disruption, supply chain resilience, and the strategic imperatives of modern warfare. The investment from a global defense leader like Hanwha validates Firehawk’s innovative vision and provides the resources needed to scale its technology from development to full-scale production, potentially giving warfighters a decisive advantage on the battlefield.
The Alliance Forging the Future of Energetics
The strategic partnership between Firehawk Aerospace and Hanwha Defense USA is built on a shared vision of transforming the propulsion industry. The investment is specifically targeted at advancing Firehawk’s solid rocket motor technology, scaling up the manufacturing of its 3D-printed propellant, and accelerating the development of fully integrated missile systems. This focused approach ensures that capital is directed toward overcoming the final hurdles to widespread adoption and deployment.
This collaboration brings together a disruptive innovator with an established global powerhouse. Firehawk Aerospace, led by CEO Will Edwards, has carved a niche in advanced energetics with its patented additive manufacturing process. The company has been steadily building momentum, underscored by a recent, oversubscribed $60 million Series C funding round. On the other side, Hanwha Defense USA, under President Mike Smith, represents the strategic U.S. arm of Hanwha Aerospace. Hanwha has been actively seeking to invest in and partner with pioneering American defense firms to bolster its capabilities and presence within the U.S. market, making Firehawk a natural fit for its forward-looking Strategy.
The leaders of both organizations have highlighted the synergy behind the investment. Their perspectives underscore the dual focus on technological superiority and industrial resilience. This is not merely an upgrade to existing systems but a fundamental rethinking of how critical defense components are made.
“This investment from Hanwha supports our mission of bringing solid rocket motor technology into the 21st century to address the challenges of the current industrial supply base and provide the warfighter with a decisive advantage.”
“Hanwha is developing strategic partnerships and making strategic investments in U.S. defense companies such as Firehawk, which is at the forefront of energetics and propulsion technology. [Firehawk’s] transformative approach to propulsion production redefines what is possible within the industry while directly addressing U.S. supply chain challenges and modernizing our military.”
The Technological Edge: 3D-Printing Rocket Motors
At the heart of this partnership lies Firehawk Aerospace’s core innovation: the use of additive manufacturing, or 3D printing, to produce solid rocket propellant. Traditional methods for creating solid rocket motors are complex, time-consuming, and involve handling volatile materials in ways that present significant safety risks. These processes have become a bottleneck in the defense supply chain, limiting the speed at which munitions can be produced, especially during times of high demand.
A Revolution in Manufacturing
Firehawk’s patented technology changes the game entirely. By 3D-printing the propellant, the company can create intricate fuel grain structures that are impossible to achieve with conventional casting methods. This allows for the precise tailoring of a rocket motor’s performance characteristics, such as its burn rate and thrust profile, to meet specific mission requirements. The result is a high-performing, customized munition that can be designed and produced in a fraction of the time.
The advantages of this approach are manifold. First, it dramatically increases safety by reducing the amount of handling required for energetic materials. Second, it is significantly more cost-effective, as it streamlines the manufacturing process and reduces waste. Finally, and perhaps most critically, it provides unprecedented speed and flexibility, enabling the rapid production of munitions to replenish stockpiles or respond to emerging threats. This agility directly addresses a key vulnerability in the current defense industrial base.
To support this technological leap, Firehawk is making substantial investments in its infrastructure. The company is in the process of building a 340-acre production facility in Lawton, Oklahoma, which will serve as a hub for its scaled-up manufacturing efforts. In addition, Firehawk operates two test facilities in West Texas, including an expansive 30-square-mile launch range, providing the necessary space to rigorously test and validate its advanced propulsion systems. This physical expansion is a clear indicator of the company’s transition from a research-focused Startups to a key player in the defense production landscape.
Broader Implications for the Defense Industry
The Hanwha-Firehawk partnership is not happening in a vacuum. It is a direct response to and a reflection of broader trends shaping the global defense sector. The increasing focus on supply chain resilience, the rapid pace of technological change, and a volatile geopolitical climate have created a fertile ground for innovations that can deliver a tangible military edge.
Strengthening the Industrial Base
One of the most pressing challenges facing the U.S. military is the fragility of its domestic supply chain for critical components like rocket motors. The conflict in Ukraine has served as a stark reminder of how quickly stockpiles of munitions can be depleted in a major conflict. Firehawk’s technology offers a path toward a more distributed, resilient, and responsive industrial base, capable of surging production when needed without relying on antiquated processes.
The strong investor confidence in Firehawk further validates this vision. The investment from Hanwha follows a $60 million Series C round led by 1789 Capital, with notable participation from firms like Draper Associates, Decisive Point, and Stellar Ventures. This diverse group of investors signals a broad consensus in the financial community that Firehawk’s technology is not just promising but essential for future defense readiness.
Furthermore, the investment carries significant international weight. Among the recent investors is Presto Tech Horizons (PTH), a fund established through a partnership between the European venture capital firm Presto Ventures and the Czech industrial giant Czechoslovak Group (CSG). This European interest highlights a shared recognition among NATO allies of the need to strengthen the transatlantic defense supply chain and source critical technologies locally. It points to a future where allied nations can collaborate more effectively to produce the advanced capabilities needed to ensure collective security.
Conclusion: A Launch Point for a New Generation of Defense
The strategic investment by Hanwha Defense USA into Firehawk Aerospace marks a critical milestone in the evolution of propulsion technology. It is an alliance that combines Firehawk’s disruptive 3D-printing innovation with Hanwha’s global manufacturing expertise and market access. This partnership is poised to do more than just build better rocket motors; it aims to fundamentally reshape the defense industrial base, making it faster, safer, and more resilient.
Looking ahead, the successful scaling of Firehawk’s technology could have profound implications for U.S. and allied military capabilities. It promises a future where tailored munitions can be developed and deployed with unprecedented speed, providing a decisive advantage in any potential conflict. This collaboration serves as a powerful example of how strategic investment in forward-thinking technology can directly address today’s national security challenges and lay the groundwork for a stronger, more agile defense posture for generations to come.
FAQ
Question: What is Firehawk Aerospace’s key innovation?
Answer: Firehawk Aerospace’s primary innovation is its patented use of additive manufacturing (3D printing) to produce solid rocket propellant and motors. This method allows for the creation of customized, high-performance munitions more quickly, safely, and cost-effectively than traditional manufacturing processes.
Question: Why did Hanwha Defense USA invest in Firehawk?
Answer: Hanwha Defense USA invested in Firehawk as part of a strategic effort to partner with innovative U.S. defense companies. They recognize Firehawk’s technology as a transformative approach to propulsion that can address critical U.S. supply chain challenges and help modernize the military’s capabilities.
Question: What are the main benefits of 3D-printing rocket propellant?
Answer: The main benefits include greater speed and flexibility in production, enhanced safety by minimizing the handling of volatile materials, lower costs due to streamlined manufacturing, and the ability to create highly tailored and better-performing rocket motors for specific missions.
Sources
Photo Credit: Firehawk Aerospace
Defense & Military
Swarm Aero Unveils Gamera UAS to Succeed MQ-9A Reaper
Swarm Aero unveiled the Gamera Group 5 UAS at Air, Space and Cyber 2026, targeting the USAF MMA program with 9,000 nm range.
Swarm Aero unveiled the Gamera, a new Group 5 uncrewed aircraft system (UAS) designed for persistent strike and sensing, at the Air & Space Forces Association’s Air, Space & Cyber Conference in National Harbor, Maryland, on September 14, 2026.
The aircraft is positioned as a mass-producible successor to the General Atomics Aeronautical Systems Inc. (GA-ASI) MQ-9A Reaper. The announcement aligns with the July 2026 launch of the Massed Modular Aircraft (MMA) program by the U.S. Air Force (USAF) and the Defense Innovation Unit (DIU), which seeks risk-tolerant platforms capable of carrying heavy payloads over intercontinental distances.
Design philosophy and aircraft specifications
According to a company press release, Swarm Aero designed the Gamera to deliver bomber-class strike munitions at a fraction of the cost of legacy platforms. The company claims a tenfold reduction in cost-per-effect compared to existing systems, though an exact unit price has not been publicly disclosed. For context, a single MQ-9A Reaper costs in excess of $30 million.
Swarm Aero Chief Revenue Officer and co-founder Oliver Palmer stated that the company inverted conventional wisdom regarding air power platform design. Speaking to Breaking Defense, Palmer explained the engineering approach.
“What we’ve done cuts against the conventional wisdom, which is that to deliver payload from a long range against critical targets, that you want to wrap that in stealth and wrap that in all sorts of protections. And what we’ve done instead is create a very simple, non-stealthy aircraft that’s optimized for extreme range.”
The Gamera UAS features the following published specifications:
- Wingspan: 72 feet
- Unrefueled range: 9,000 nautical miles
- Payload capacity: 2,800+ pounds
- Hardpoints: 7 available store locations
- Powerplant: Honeywell TPE331 turboprop engine
- Software: Legion command-and-control (C2) architecture
Addressing fleet attrition and the MMA program
The push for cheaper, mass-producible drones follows high attrition rates of legacy platforms. According to reporting by Aviation International News, the USAF has lost 45 MQ-9A Reapers during the ongoing military conflict with Iran, representing approximately 25 percent of the active fleet.
To address these losses and prepare for future operational needs, the DIU set a target to field 20 new mission-ready drones under the MMA program by fiscal year 2031. The program requires a minimum payload of 2,800 pounds and a range of 8,000 nautical miles. Swarm Aero will face competition in this category, notably from GA-ASI, which recently unveiled its own MQ-9A alternative called the Wildfire, designed to carry four AGM-184 Joint Strike Missiles.
Swarm Aero executives emphasized the strategic necessity of moving away from exquisite, low-volume aircraft. Palmer noted that the People’s Liberation Army has built asymmetric ways to challenge legacy U.S. force structures, requiring a departure from incremental improvements to deter coercion of allied partners. Swarm Aero CEO and co-founder Peter Kalogiannis added that the company possesses the technical expertise required to volume-produce military aircraft and deliver the Gamera at scale.
AirPro News analysis
The unveiling of the Gamera highlights a definitive pivot in USAF procurement strategy. For two decades, the MQ-9A Reaper dominated the medium-altitude, long-endurance mission set in permissive airspace. The loss of 45 Reapers in the Iran conflict has forced a reckoning regarding the viability of deploying $30 million assets in contested environments. We view the MMA program as a critical test of the Department of Defense’s ability to acquire attritable mass.
Swarm Aero’s decision to abandon stealth in favor of extreme range and payload capacity reflects a pragmatic approach to the Pacific theater, where distance is the primary operational constraint. However, the company’s claim of a tenfold cost reduction will face intense scrutiny as the Gamera moves from prototype to production. Meeting the DIU’s 2031 fielding deadline will require Swarm Aero to rapidly scale manufacturing capabilities while competing against established prime contractors like GA-ASI.
Sources: Swarm Aero via GlobeNewswire
Photo Credit: Swarm Aero
Defense & Military
GA-ASI and Tactical Air Support Validate CCA Open Architecture
GA-ASI and Tactical Air Support fused passive sensor data between a manned F-5 and unmanned CCA using USAF open architecture standards.
General Atomics Aeronautical Systems, Inc. (GA-ASI) and Tactical Air Support, Inc. successfully fused passive sensor data between a manned fighter and an unmanned test aircraft to track and engage airborne targets during a July 21, 2026, large force exercise.
In a press release issued on September 15, 2026, GA-ASI confirmed the flight test demonstrated Infrared Search and Track (IRST) Multi-Ship Ranging (MSR). The exercise proved that platforms built by different companies can share targeting data using government-standard open architectures, directly supporting U.S. Air Force (USAF) efforts to eliminate proprietary vendor lock in future autonomous fleets.
Validating open architecture for Collaborative Combat Aircraft
The July 21 Test-Flights paired a manned F-5 Advanced Tiger, operated by Tactical Air Support, with an unmanned Collaborative Combat Aircraft (CCA) test aircraft developed by GA-ASI. Both aircraft were equipped with GA-ASI’s TacACE® software, a Tactical Autonomy Ecosystem designed to comply with emerging military software standards.
The test directly applied the Agile Mission Suite Government Reference Architecture (AMS-GRA) and the Autonomy Government Reference Architecture (A-GRA). The Air Force Life Cycle Management Center (AFLCMC) publicly released these standards on July 28, 2026, to establish a modular, open-systems approach for acquiring and upgrading weapon systems. Throughout 2026, the USAF has actively validated the A-GRA standard across multiple vendor platforms to ensure mission Software can be decoupled from specific vehicle hardware.
By utilizing these government reference architectures, the GA-ASI and Tactical Air Support platforms successfully communicated and shared sensor data without relying on a single manufacturer’s proprietary network.
“With this flight, we moved beyond simply flying an autonomous jet and showed how a manned fighter and an autonomous CCA can work together to find, track, and engage a target using passive sensors and shared autonomy,” said Michael Roberts, Advanced Programs Emerging Technology Director at GA-ASI.
Passive sensing and Beyond Line of Sight integration
The exercise focused on closing the kill chain against airborne adversaries using passive sensors, which allow aircraft to detect and track targets without emitting Radar-Systems that could reveal their own positions. The IRST MSR capability enabled the manned F-5 and the unmanned CCA to triangulate target data collaboratively.
To achieve this, the aircraft utilized a Beyond Line of Sight (BLOS) data link, ensuring the platforms could maintain human-machine teaming and share high-fidelity targeting information over extended distances.
Roberts noted that the successful integration of these systems marks a critical step in the development of the CCA program. “This is the kind of operationally relevant mission that will allow autonomous CCAs to deploy alongside manned aircraft and deliver real combat capability for the warfighter,” Roberts said. He added that the flight test confirms the CCA solution’s readiness for production.
AirPro News analysis
The successful demonstration of IRST Multi-Ship Ranging between a manned F-5 and an unmanned CCA test aircraft highlights a pivotal shift in defense procurement and operational tactics. By proving that platforms from different Manufacturers can seamlessly fuse sensor data using the A-GRA and AMS-GRA standards, the industry is moving closer to the USAF’s vision of a highly modular, interchangeable autonomous fleet.
For decades, military aviation has been constrained by vendor lock, where purchasing a specific aircraft meant committing to that manufacturer’s proprietary software and communication links. The July 21 exercise demonstrates that decoupling the Automation software from the air vehicle hardware is not just a theoretical acquisition strategy, but a functional operational reality. As the USAF continues to refine its CCA requirements, the ability to integrate passive sensors across disparate platforms via government-owned architectures will likely become a baseline requirement for future defense contracts, fostering a more competitive and agile industrial base.
Photo Credit: General Atomics Aeronautical Systems, Inc.
Defense & Military
GA-ASI Opens Dayton Facility to Support FQ-42A Vengeance Program
GA-ASI will open a 22,000-sq-ft innovation hub near Wright-Patterson AFB in Spring 2027 to support USAF uncrewed aircraft programs.
General Atomics Aeronautical Systems, Inc. (GA-ASI) will establish a 22,000-square-foot innovation hub in Dayton, Ohio, expanding its local footprint sevenfold to support hardware and software development for United States Air Force (USAF) uncrewed programs.
Announced in a company press release on September 14, 2026, the Beavercreek facility is scheduled to open in Spring 2027. The expansion positions the manufacturers closer to key military acquisition and research centers at nearby Wright-Patterson Air Force Base (WPAFB), specifically the Air Force Life Cycle Management Center (AFLCMC) and the Air Force Research Laboratory (AFRL).
Prototyping and remote operations capabilities
The new facility will serve as a central hub for rapid prototyping, integration, and testing of next-generation Uncrewed Aircraft Systems (UAS). A key feature of the site will be a dedicated mission operations center, which will enable the remote flight control of GA-ASI aircraft directly from the Ohio location.
The project is expected to create 50 initial full-time jobs. The expansion builds upon GA-ASI’s existing presence outside WPAFB, which first opened in 2014.
Patrick Shortsleeve, Vice President of DoD Strategic Development at GA-ASI, stated that the expansion allows the company to bring its sensing and UAS expertise to a region known for advanced technology.
“This expansion will enable closer collaboration with local industry and more frequent interaction with our U.S. Air-Forces customer,” Shortsleeve said.
State and local economic partnerships
The development is a collaborative effort involving the State of Ohio, JobsOhio, the Dayton Development Coalition, and Synergy Building Systems. Ohio Governor Mike DeWine characterized the decision as a reflection of the state’s aviation heritage and workforce ingenuity.
J.P. Nauseef, President and CEO of JobsOhio, noted that the investment reinforces Ohio’s role in national defense infrastructure. Synergy Building Systems Vice President John Kopilchack also welcomed GA-ASI into the company’s defense portfolio, emphasizing a commitment to clients pioneering modern military solutions.
Aligning with the Collaborative Combat Aircraft program
The Dayton expansion follows a major production contracts awarded to GA-ASI by the USAF in June 2026 for the FQ-42A Collaborative Combat Aircraft (CCA). The uncrewed fighter jet is designed for semi-autonomous air-to-air operations alongside crewed aircraft.
According to reporting by Air & Space Forces Magazine, Air Force Secretary Troy Meink announced on September 14, 2026, that the FQ-42A has been officially named “Vengeance.” During the Air & Space Forces Association’s 2026 Air, Space & Cyber Conference, Meink outlined the service’s intention to field a minimum of 500 autonomous CCAs by 2032.
AirPro News analysis
We view GA-ASI’s physical expansion in Dayton as a direct operational response to the FQ-42A Vengeance production contract. By scaling its footprint directly outside the gates of WPAFB, the manufacturer is embedding its engineering and prototyping teams alongside the AFLCMC personnel responsible for managing the CCA program’s lifecycle. The inclusion of a mission operations center for remote flight control suggests GA-ASI intends to conduct active testing and demonstration flights integrated with AFRL research initiatives without requiring USAF personnel to travel to the company’s California or Nevada test sites.
Photo Credit: General Atomics Aeronautical Systems, Inc.
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