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.
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 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.”
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.
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.
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.
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.
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. Question: What is Firehawk Aerospace’s key innovation? Question: Why did Hanwha Defense USA invest in Firehawk? Question: What are the main benefits of 3D-printing rocket propellant?
A New Era in Propulsion: Hanwha’s Strategic Investment in Firehawk Aerospace
The Alliance Forging the Future of Energetics
The Technological Edge: 3D-Printing Rocket Motors
A Revolution in Manufacturing
Broader Implications for the Defense Industry
Strengthening the Industrial Base
Conclusion: A Launch Point for a New Generation of Defense
FAQ
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.
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.
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
Russian An-26 Military Transport Crashes in Crimea Killing 29
A Russian An-26 military transport crashed in Crimea on March 31, 2026, killing all 29 on board due to a technical malfunction, officials say.
This article summarizes reporting by Reuters.
A Russian Antonov An-26 military transport aircraft crashed in the Crimean Peninsula on Tuesday, March 31, 2026, resulting in the deaths of all 29 individuals on board. According to reporting by Reuters, which cited Russian news agencies and the Defence Ministry, the aircraft went down during a scheduled flight. Search and rescue teams later located the wreckage, confirming there were no survivors.
The incident highlights the ongoing risks associated with operating aging military aircraft in high-tension regions. While the Crimean Peninsula remains a heavily militarized zone amid the ongoing conflict, preliminary official statements from Russian authorities indicate that the crash was likely the result of a technical malfunction rather than hostile action.
We at AirPro News are closely monitoring the situation as specialized investigative committees examine the crash site. The loss of the aircraft and its personnel underscores the logistical and human toll of sustained military operations relying on legacy aviation assets.
The An-26 lost contact at approximately 18:00 Moscow time on March 31, 2026, according to comprehensive research reports detailing the event. The aircraft reportedly collided with a cliff in Crimea. The 29 fatalities consisted of six crew members and 23 passengers.
“A Russian An-26 military transport plane crashed in Crimea, killing 29 people aboard,” Reuters reported.
Russian state news agencies, including TASS and RIA Novosti, relayed statements from the Russian Defense Ministry confirming the loss. Officials explicitly ruled out external factors, stating there was no damaging impact on the aircraft from missiles or drones. A specialized committee affiliated with the Defense Ministry has been dispatched to determine the exact sequence of events that led to the technical failure.
The Antonov An-26, designated by NATO as “Curl,” is a twin-engine turboprop tactical military transport aircraft. Designed by the Soviet-era Antonov Design Bureau, the aircraft was manufactured between 1969 and 1986. Industry data indicates that the airframes currently in service are several decades old. The An-26 is designed for short- to medium-haul transport, featuring a rear loading ramp. It is capable of carrying up to 40 passengers, paratroopers, or approximately 5.5 tons of cargo.
Because of its ability to operate from short and unpaved runways, the An-26 has been a mainstay for frontline logistics and medical evacuations. However, its advanced age and widespread use in challenging, austere environments have contributed to a mixed safety record, with the aircraft being involved in numerous aviation accidents over the decades. Since its annexation by Russia in 2014, the Crimean Peninsula has served as a critical logistical, naval, and military hub. It is heavily utilized by Moscow for supplying troops and launching strikes during the ongoing invasion of Ukraine. The airspace over Crimea is highly contested and heavily monitored.
The crash occurred against a backdrop of intensified military activity in the region. According to regional research reports, Ukrainian forces have increasingly targeted Russian military assets in Crimea. In September 2025, Ukraine’s military intelligence reportedly destroyed two Russian An-26 transport aircraft in a drone attack. More recently, on March 24, 2026, Ukrainian forces reportedly destroyed a Zircon hypersonic missile launcher in the area. Furthermore, on the same day as the An-26 crash, unverified reports from Ukrainian media and Russian aviation bloggers suggested the loss of a Russian Su-34 fighter-bomber.
While Russian officials have attributed the March 31 crash to a technical malfunction, we note that the heavy reliance on Soviet-era airframes like the An-26 in a high-tempo combat environment significantly increases the probability of mechanical failures. The aircraft involved was at least 40 years old, as production ceased in 1986. Sustained operational stress, combined with potential supply chain issues for legacy aircraft parts, creates a precarious situation for military logistics. Even without direct hostile action, the attrition of these transport assets represents a notable degradation of tactical airlift capabilities in a critical theater of operations.
Preliminary statements from the Russian Defense Ministry indicate the crash was caused by a technical malfunction. Officials have stated there is no evidence of external hostile impact, though investigations are ongoing.
According to Reuters and Russian official statements, all 29 people on board the aircraft were killed. This included six crew members and 23 passengers.
The An-26 is a Soviet-era, twin-engine turboprop military transport aircraft manufactured between 1969 and 1986. It is primarily used for short- to medium-haul logistics, troop transport, and medical evacuations.
Sources: Reuters, Provided Research Report
Russian An-26 Military Transport Crashes in Crimea, Killing 29
Incident Details and Official Statements
The Flight and the Crash
Preliminary Investigations
The Antonov An-26: An Aging Workhorse
Aircraft Specifications
Safety Record and Operational Use
Geopolitical Context and Regional Tensions
Crimea as a Strategic Hub
Recent Aviation and Military Losses
AirPro News analysis
Frequently Asked Questions (FAQ)
What caused the Russian An-26 crash in Crimea?
How many casualties were reported?
What is an Antonov An-26?
Photo Credit: UNN
Defense & Military
US Air Force F-35A Crashes Near Las Vegas Pilot Safe
A U.S. Air Force F-35A crashed in Nevada Test Range; pilot ejected safely with minor injuries. Investigation ongoing by Nellis AFB officials.
This article summarizes reporting by Fox News.
A U.S. Air Force F-35A Lightning II fighter jet crashed north of Las Vegas on Tuesday, March 31, 2026. According to reporting by Fox News, the pilot successfully ejected from the aircraft and sustained only minor injuries.
The incident occurred around noon local time within the highly restricted Nevada Test and Training Range, approximately 25 miles northeast of Indian Springs. Military officials confirmed that the crash site was confined to federal property, ensuring no civilian areas or infrastructure were impacted by the downed aircraft.
The stealth fighter was permanently assigned to the 57th Wing at Nellis Air Force Base. While the pilot is currently receiving medical treatment and is expected to recover, the Air Forces has launched a standard safety investigation to determine the root cause of the crash.
Emergency responders were quickly dispatched to the remote Nevada location to recover the pilot shortly after the ejection. Because the crash occurred within a controlled military environment, securing the site and reaching the aviator proceeded without civilian interference.
In an official statement released by the 57th Wing at Nellis Air Force Base, military representatives emphasized that the safety of their personnel and the surrounding community remains their top priority.
“Emergency responders are on-scene and there is no impact to populated areas. The pilot is safe and being treated for minor injuries,” the 57th Wing stated.
The official cause of the crash remains undisclosed pending a thorough military investigation. However, local broadcast affiliate KSNV News 3 reported that preliminary sources indicated the pilot experienced “trouble maneuvering” shortly before the aircraft went down. The Air Force has not yet verified these specific flight control issues.
Nellis Air Force Base, situated about eight miles northeast of downtown Las Vegas, serves as a critical hub for advanced air combat training, tactics development, and weapons testing. The base’s 57th Wing oversees these complex operations, heavily utilizing the vast expanse of the nearby training ranges. The Nevada Test and Training Range covers approximately 5,000 square miles of restricted airspace and over 2.9 million acres of land. This remote, unpopulated environment is specifically designed to safely accommodate high-risk military aviation testing, a factor that successfully prevented any civilian casualties during Tuesday’s incident.
Manufactured by Lockheed Martin, the F-35 Lightning II is widely regarded as one of the most advanced stealth fighters globally, with each unit costing approximately $100 million. The Air Force primarily operates the F-35A variant, which utilizes conventional takeoff and landing capabilities. The broader Department of Defense F-35 program also includes the Marine Corps’ F-35B and the Navy’s carrier-based F-35C.
Industry and military data indicate that the F-35 program has accumulated over 721,000 cumulative flight hours over nearly two decades of operation. While the aircraft maintains a generally strong safety record relative to its extensive flight time, it has experienced several high-profile incidents in recent years.
In May 2024, an F-35 crashed near an airfield in Albuquerque, New Mexico, shortly after takeoff, resulting in serious injuries to the pilot. Prior to that, a September 2023 incident involving a Marine Corps F-35B in South Carolina garnered significant public attention when the aircraft continued flying on autopilot for 30 hours after the pilot ejected.
Other notable incidents include an October 2022 crash at Hill Air Force Base in Utah, which investigators later attributed to air data system errors, and a January 2022 “ramp strike” involving a Navy F-35C attempting to land on the USS Carl Vinson in the South China Sea.
At AirPro News, we note that while the loss of a $100 million fifth-generation asset is a significant financial and operational setback, the successful ejection and survival of the pilot underscore the effectiveness of modern military egress systems. Furthermore, the isolation of the Nevada Test and Training Range once again proved its immense value in mitigating collateral damage during catastrophic aviation failures. As the Air Force convenes its safety investigation board, the aviation community’s focus will likely center on whether the reported “trouble maneuvering” stems from a localized mechanical failure, a software anomaly, or human factors, any of which could have broader maintenance implications for the global F-35 fleet.
Where did the F-35 crash happen? Was anyone hurt in the crash? How much does an F-35 fighter jet cost?
Details of the Incident and Rescue
Potential Causes Under Investigation
Contextualizing the F-35 Program and Nellis AFB
The F-35 Lightning II Fleet
Historical Safety Record of the F-35
AirPro News analysis
Frequently Asked Questions (FAQ)
The crash occurred approximately 25 miles northeast of Indian Springs, Nevada, within the restricted military airspace of the Nevada Test and Training Range.
The pilot successfully ejected and sustained only minor injuries. No civilians were harmed, as the crash occurred on highly restricted, unpopulated federal property.
According to defense estimates, each F-35 fighter jet costs approximately $100 million, though exact figures vary depending on the specific variant and production lot.
Sources
Photo Credit: AF.mil
Defense & Military
Indonesia Orders 12 Pilatus PC-24 Jets for Air Force Modernization
Indonesia signs contract for 12 Pilatus PC-24 jets and LOI for 24 PC-21 trainers to enhance Air Force training and transport capabilities.
This article is based on an official press release from Pilatus Aircraft.
The Indonesian Ministry of Defense has officially selected the Pilatus PC-24 to modernize the Indonesian Air Force’s transport pilot training, air transport, and liaison capabilities. According to a recent press release from Pilatus Aircraft, a firm contract for 12 PC-24 “Super Versatile Jets” has been signed. The agreement was facilitated by PT E-System Solutions Indonesia, an authorized defense contractor acting on behalf of the Ministry of Defense.
In addition to the jet acquisition, the parties simultaneously signed a Letter of Intent (LOI) for the supply of 24 Pilatus PC-21 advanced turboprop trainers. This parallel agreement signals a comprehensive overhaul of the Indonesian Air Force’s training pipeline, providing a tiered approach to preparing military aviators for complex modern missions.
For a nation comprising an archipelago of over 17,000 islands, logistical reach and operational flexibility are paramount. The Pilatus press release notes that the PC-24’s unique ability to operate from short, unpaved runways was a decisive factor in the Ministry of Defense’s selection, ensuring greater accessibility to Indonesia’s most remote regions.
The contract for the 12 PC-24 aircraft includes a comprehensive support package. According to Pilatus, the deal encompasses ground support equipment, specialized tools, spare parts, pilot training, and ongoing technical support directly from the manufacturer’s headquarters in Stans, Switzerland. The agreement also includes options for the procurement of additional aircraft in the future.
The PC-24 is uniquely positioned for government and military-aircraft applications. The manufacturer highlights that the aircraft is certified for single-pilot operation and features a standard pallet-sized cargo door. Crucially, it is approved for use on unpaved, dirt, and grass runways. These design elements allow the aircraft to rapidly transition between instrument flight rules (IFR) pilot training, VIP transport, and remote liaison duties.
Operating across thousands of islands presents unique logistical hurdles for the Indonesian military, as many remote outposts rely on short or poorly maintained airstrips. The rough-field capability of the PC-24 directly addresses this challenge, expanding the operational footprint of the Air Force without requiring extensive infrastructure upgrades.
“We appreciate the trust placed in Pilatus by the Indonesian Ministry of Defense. This program marks the beginning of a long-term relationship, and our priority is to support Indonesia in putting the fleet into service smoothly.”, Markus Bucher, CEO of Pilatus
The simultaneous LOI for 24 PC-21 turboprop trainers highlights a strategic shift in how Indonesia prepares its military pilots. The PC-21 package will include ground-based training equipment, spare parts, and technical support. Industry research indicates that combining high-performance turboprops with light jets mirrors the tiered training architectures currently utilized by NATO and other advanced Asia-Pacific air forces. Defense analysts note that introducing the PC-24 into the training fleet allows student pilots to experience jet performance, multi-engine operations, and complex avionics earlier in their careers, all while maintaining lower operational costs compared to traditional frontline military jets.
“The selection by the Indonesian Air Force emphasizes the growing interest of government operators in our PC-24 Super Versatile Jet. We remain focused on supplying solutions to facilitate various missions ranging from training to transport.”, Ioannis Papachristofilou, Vice President of Government Aviation at Pilatus
The Pilatus acquisition is part of a much larger, multi-layered modernization effort within the Indonesian military. Supplementary industry research reveals that Indonesia has been aggressively upgrading its rotary, heavy transport, and combat fleets. In September 2024, the country ordered four Airbus H145 helicopters for military training and light search-and-rescue. Furthermore, Indonesian crews are currently training to operate the Airbus A400M Atlas heavy transport aircraft. In February 2026, Indonesia also signed LOIs for Leonardo M-346 Master trainer jets and Russian-made MiG-29s to establish an “aggressor squadron” for advanced combat wargames.
The intermediary for the Pilatus contract, PT E-System Solutions Indonesia, is emerging as a highly active player in the region’s defense procurement. According to industry reports, the company is a subsidiary of UAE-based E-System Solution FZ. Beyond the Pilatus agreement, the contractor was also involved in the recent Leonardo and MiG-29 LOIs. In late 2025, the company acquired a significant interest in TRUVELO Specialised Manufacturing, a South African arms manufacturer, and its CEO recently announced plans to purchase 14 MD light helicopters to develop a hybrid manned-unmanned aviation ecosystem.
We view the Indonesian Ministry of Defense’s selection of the PC-24 as a strong indicator of a growing global trend toward utilizing versatile, commercial-off-the-shelf (COTS) business jets for specialized military roles. Indonesia joins a notable list of military operators adopting the PC-24; the French Navy recently leased three units for IFR training, and the Qatar Emiri Air Force currently operates two. By leveraging the PC-24’s unpaved runway certification, Indonesia is effectively bridging the gap between a traditional VIP transport jet and a rugged tactical airlifter, maximizing the utility of its defense budget while addressing the specific geographic realities of its archipelago.
What is the Pilatus PC-24? The Pilatus PC-24 is a light business jet developed in Switzerland, marketed as a “Super Versatile Jet.” It features a standard cargo door and is uniquely certified to operate from short, unpaved, dirt, and grass runways.
How many aircraft is Indonesia acquiring? The Indonesian Ministry of Defense has signed a firm contract for 12 PC-24 jets, with options for more. Additionally, they have signed a Letter of Intent (LOI) for 24 Pilatus PC-21 turboprop trainers.
Why did Indonesia choose the PC-24? According to Pilatus, the aircraft’s ability to take off and land on short, unpaved runways was a decisive factor, as it allows the Indonesian Air Force to access remote islands across the 17,000-island nation for transport, training, and liaison missions.
Introduction
Modernizing Indonesia’s Air Capabilities
The Geographic Imperative
A Layered Approach to Pilot Training
Broader Defense Procurement Context
The Role of PT E-System Solutions Indonesia
AirPro News analysis
Frequently Asked Questions (FAQ)
Sources
Photo Credit: Pilatus
-
Business Aviation6 days agoJacksonville Begins Otto Aerospace Facility for Phantom 3500 Jets
-
Regulations & Safety5 days agoHelicopter Crash Near Kalalau Beach Kauai Kills Three
-
Aircraft Orders & Deliveries2 days agoAirbus Begins Ground Testing of New A350F Freighter Model
-
Commercial Aviation4 days agoAmerican Airlines Plans Major In-Flight Wi-Fi and Entertainment Upgrade
-
MRO & Manufacturing6 days agoDeutsche Aircraft Advances D328eco with Dassault 3DEXPERIENCE Integration