Defense & Military
Cranfield University and Altair Partner to Revolutionize Aerospace with AI
The aerospace industry has always been at the forefront of technological innovation, and the integration of artificial intelligence (AI) and simulation is the latest frontier. Recently, Cranfield University, a leader in aerospace research, and Altair, a global computational intelligence company, signed a memorandum of understanding (MoU) to explore the use of AI, simulation, and data analytics in aerospace and robotics. This partnership marks a significant step toward revolutionizing the industry by leveraging cutting-edge technologies to solve complex challenges.
The collaboration is particularly timely, as the aerospace sector faces increasing demands for sustainability, cost efficiency, and faster product development. Traditional simulation methods, while effective, are often time-consuming and resource-intensive. The integration of AI and machine learning (ML) promises to transform these processes, enabling faster, more accurate, and comprehensive simulations. This partnership aims to support students, researchers, and startups in harnessing the power of computational intelligence to drive next-generation innovation.
As Pietro Cervellera, Senior Vice President of Aerospace and Defense at Altair, noted, “This MoU is just the first step in developing new breakthroughs and helping organizations of all kinds explore the immense power of simulation, data analytics, and AI within aerospace.” The collaboration is expected to have far-reaching implications, not only for aerospace but also for industries like robotics, telecommunications, and defense.
AI and simulation have become indispensable tools in modern aerospace engineering. Traditional simulation methods rely on numerical calculations to predict how aircraft and spacecraft will perform under various conditions. While effective, these methods can be slow and require significant computational resources. AI and ML, on the other hand, can process vast amounts of data in seconds, enabling highly detailed and accurate simulations.
For example, AI-driven simulations can analyze tens of millions of different geometries and associated physics simulations in a fraction of the time it would take using traditional methods. This capability is particularly valuable in designing complex components like aircraft frames and propulsion systems, where even minor improvements can lead to significant performance gains. Additionally, AI can optimize supply chain management, enhance quality control, and improve pilot training through virtual reality simulations.
The integration of AI also reduces the need for physical tests, which can be costly and time-consuming. By simulating real-world conditions with high accuracy, engineers can identify potential issues early in the design process, saving both time and resources. As Professor Antonios Tsourdos, Director of AI, Robotics, and Space at Cranfield University, stated, “We’re looking forward to working together with Altair to identify ways we can integrate technologies to support students and their research projects, and accelerate startups already working with Cranfield.”
“AI-driven simulations are now capable of processing vast amounts of data, enabling highly detailed simulations to be completed in a matter of seconds, rather than hours.” – Industry Expert
The MoU between Cranfield University and Altair focuses on several key areas, including autonomous space exploration, Earth observation, telecommunications, and defense. One of the primary goals is to support students and researchers in developing innovative solutions using AI, simulation, and data analytics. This includes providing access to advanced computational tools and expertise, enabling them to tackle complex challenges in aerospace and robotics.
Another important aspect of the collaboration is its focus on startups. By working with early-stage companies, the partnership aims to accelerate the development of new technologies and bring them to market faster. This is particularly important in the aerospace industry, where innovation often requires significant investment and long development cycles. By leveraging AI and simulation, startups can reduce costs and improve their chances of success. The collaboration also aligns with broader industry trends, such as the increasing use of AI and ML in digital transformation initiatives. As industries across the globe embrace these technologies, the aerospace sector is well-positioned to lead the way. The partnership between Cranfield University and Altair is a testament to the potential of AI and simulation to drive innovation and address some of the most pressing challenges in aerospace.
The MoU between Cranfield University and Altair represents a significant milestone in the integration of AI and simulation in aerospace. By combining their expertise, the two organizations aim to drive next-generation innovation, support students and researchers, and accelerate the development of new technologies. The collaboration is expected to have far-reaching implications, not only for aerospace but also for industries like robotics, telecommunications, and defense.
Looking ahead, the integration of AI and simulation is likely to play an increasingly important role in addressing challenges such as sustainability, cost reduction, and faster product development. As the aerospace industry continues to evolve, partnerships like this one will be crucial in driving innovation and ensuring that the sector remains at the forefront of technological advancement. The future of aerospace is bright, and AI and simulation will undoubtedly be at its core.
What is the purpose of the MoU between Cranfield University and Altair? How does AI improve aerospace simulations? What industries will benefit from this collaboration? Sources: Military Aerospace, Cranfield University
The Future of AI and Simulation in Aerospace: Cranfield University and Altair’s Groundbreaking MoU
Why AI and Simulation Matter in Aerospace
The Scope of the Cranfield-Altair Collaboration
Conclusion
FAQ
The MoU aims to explore and expand the use of AI, simulation, and data analytics in aerospace and robotics, while supporting students, researchers, and startups in harnessing these technologies.
AI enables faster, more accurate, and comprehensive simulations by processing vast amounts of data in seconds, reducing the need for physical tests and saving resources.
While the primary focus is aerospace, the collaboration is expected to have implications for industries like robotics, telecommunications, and defense.
Defense & Military
GA-ASI YFQ-42A Completes Semi-Autonomous Flight with Collins Software
GA-ASI’s YFQ-42A successfully flew semi-autonomously using Collins Aerospace software, validating the USAF’s open architecture for uncrewed combat aircraft.
This article is based on an official press release from General Atomics Aeronautical Systems, Inc. (GA-ASI) and additional industry data.
General Atomics Aeronautical Systems, Inc. (GA-ASI) has announced a significant technical achievement in the development of the U.S. Air Force’s Collaborative Combat Aircraft (CCA) program. In early February 2026, the company successfully conducted a semi-autonomous flight of its YFQ-42A prototype, a critical contender for the Air Force’s future fleet of uncrewed “loyal wingmen.”
The flight, which lasted more than four hours, is particularly notable for its Software architecture. According to the company, the aircraft was controlled by “Sidekick” Collaborative Mission Autonomy software developed by Collins Aerospace, an RTX business. This integration demonstrates the viability of the Air Force’s “open architecture” strategy, where mission software from one vendor can successfully pilot an airframe built by another.
The primary objective of this flight test was to validate the Autonomy Government Reference Architecture (A-GRA). Historically, military aircraft have relied on proprietary software tightly coupled with the hardware, making upgrades difficult and locking the military into specific vendors. The CCA program aims to break this paradigm by decoupling the “brains” from the “body.”
During the mission, the YFQ-42A utilized the government-standard A-GRA to interface with the Collins Aerospace software. GA-ASI reports that the aircraft executed complex commands initiated by a ground operator but performed the actual flight maneuvers via onboard Automation.
David R. Alexander, President of GA-ASI, highlighted the importance of this collaboration in a statement:
“The integration of Sidekick with our YFQ-42A demonstrates our commitment to innovation and operational excellence… We are excited to collaborate with Collins to deliver enhanced autonomous mission solutions.”
The operational concept demonstrated during this flight is described as “human-on-the-loop.” Rather than a pilot remotely controlling the aircraft’s stick and rudder, a human operator at a Ground Station Console (GSC) issues high-level mission commands. The aircraft’s autonomy software then determines the necessary altitude, airspeed, navigation, and sensor adjustments to execute those orders.
Ryan Bunge, Vice President at Collins Aerospace, emphasized the speed at which this integration occurred: “The rapid integration of Sidekick onto this General Atomics platform… underscores the strength and flexibility of our open systems approach.”
This milestone comes at a pivotal moment for the CCA program. The U.S. Air Force intends to field a fleet of at least 1,000 uncrewed aircraft to fly alongside manned fighters like the F-35 and the forthcoming Next Generation Air Dominance (NGAD) platform. The program emphasizes “affordable mass,” with target unit costs estimated between $20.5 million and $27.5 million.
GA-ASI is currently competing against Anduril Industries for the Increment 1 production contract. While Anduril’s YFQ-44A “Fury” conducted its First-Flight in October 2025, GA-ASI is leveraging its extensive history with the MQ-20 Avenger and XQ-67A sensing station to demonstrate reliability and modularity.
The successful integration of Collins Aerospace software onto a General Atomics airframe is a major proof point for the Department of Defense’s acquisition strategy. By proving that third-party autonomy can drive the YFQ-42A, GA-ASI effectively de-risks the program for the Air Force.
This capability prevents “vendor lock,” allowing the Air Force to upgrade tactical software, effectively the aircraft’s tactical instincts, without needing to modify the physical airframe. If the software from one vendor outperforms another in simulation, the Air Force theoretically retains the flexibility to swap “apps” on the aircraft, ensuring the fleet remains adaptable to evolving threats without the long lead times associated with traditional hardware updates.
Following this successful semi-autonomous flight, the testing schedule for the CCA program is expected to accelerate throughout 2026. The Air Force’s Experimental Operations Unit (EOU) at Nellis Air Force Base is slated to conduct advanced trials, which will likely involve joint flights pairing these uncrewed systems with manned fighters to test tactical coordination.
Additionally, the U.S. Marine Corps has selected the YFQ-42A to evaluate for its own MUX TACAIR program, further expanding the potential market for GA-ASI’s platform. A production decision for the CCA Increment 1 program is expected by the end of Fiscal Year 2026.
GA-ASI YFQ-42A Completes Semi-Autonomous Flight Using Third-Party Software
Validating the Open Architecture Vision
Human-on-the-Loop Operations
Strategic Context: The Race for Collaborative Combat Aircraft
AirPro News Analysis
Future Outlook and Testing
Frequently Asked Questions
Sources
Photo Credit: GA-ASI
Defense & Military
Saudi Arabia Orders Four Leonardo C-27J Maritime Patrol Aircraft
Saudi Arabia’s Ministry of Defence contracts Leonardo for four armed C-27J Spartan maritime patrol aircraft, deliveries from 2029.
This article is based on an official press release from Leonardo.
The Ministry of Defence of the Kingdom of Saudi Arabia (KSA) has signed a contract with Leonardo for four C-27J Spartan aircraft configured for maritime patrol (MPA). According to the company’s announcement on February 16, 2026, the new fleet will be operated by the Royal Saudi Naval Forces (RSNF) to enhance the nation’s maritime security and multi-domain capabilities.
Deliveries of the aircraft are scheduled to begin in 2029. This acquisition makes Saudi Arabia the 21st operator of the C-27J platform worldwide. The deal follows a previous contract signed in the summer of 2025, in which the Saudi military acquired two C-27Js configured for firefighting, cargo transport, and medical evacuation.
The agreement marks a significant technical milestone for the C-27J program. Leonardo stated that this is the first time the MPA variant has been procured with full maritime weapon system integration, allowing the aircraft to carry munitions such as anti-ship missiles and torpedoes.
The new aircraft are intended to address a wide range of modern maritime threats. According to Leonardo, the C-27J MPA will provide the Royal Saudi Naval Forces with capabilities for Anti-Submarine Warfare (ASW) and Anti-Surface Warfare (ASuW), alongside standard Search and Rescue (SAR) and surveillance missions.
The aircraft will be based on the C-27J Spartan Next Generation platform, which features upgraded avionics and self-protection systems. Despite the specialized maritime configuration, the aircraft will retain the flexibility to perform tactical transport and airdrop missions, a core strength of the Spartan airframe.
“This significant achievement confirms the strong bond between Leonardo and the Kingdom of Saudi Arabia, increasing the number of C-27Js ordered by KSA users… It also marks the first time the C-27J MPA is procured with maritime weapon system integration capability.”
, Leonardo Press Release
The C-27J MPA is equipped with a dedicated mission suite centered on the Leonardo ATOS (Airborne Tactical Observation and Surveillance) system. This system manages onboard sensors to detect, identify, and track both surface and underwater targets. The aircraft also features data fusion capabilities and a communication suite designed for interoperability with other units, including Beyond Line Of Sight (BLOS) operations. Most notably, the Saudi variant will be the first to integrate a complete maritime weapons package. While specific munition types were not detailed in the initial release, Leonardo confirmed the aircraft will be capable of deploying:
The modular design allows operators to reconfigure the cabin for different missions. By removing mission management consoles, the aircraft can revert to a transport configuration for troops, cargo, or medical evacuation.
This contract represents a strategic shift for both the Royal Saudi Naval Forces and the C-27J program. For Saudi Arabia, acquiring fixed-wing assets with organic ASW and ASuW capabilities significantly extends the reach of its naval defense beyond coastal waters, reducing reliance on rotary-wing assets for long-range patrol.
For Leonardo, securing a launch customer for the armed MPA variant is a critical market validation. It positions the C-27J as a more direct competitor to other medium-tactical maritime patrol aircraft, such as the Airbus C295 MPA, by proving the platform can handle complex weapon integration alongside its established tactical airlift performance.
When will the aircraft be delivered? What makes this order unique? Does Saudi Arabia already operate the C-27J?
Saudi Arabia Orders Four Armed C-27J Maritime Patrol Aircraft
Expanding Naval Capabilities
Technical Specifications and Weaponization
AirPro News analysis
FAQ
Deliveries to the Royal Saudi Naval Forces are expected to commence in 2029.
This is the first contract for the C-27J MPA that includes the integration of maritime weapon systems, such as torpedoes and anti-ship missiles.
Yes. The Kingdom acquired two C-27J aircraft in the summer of 2025 for firefighting and utility roles.
Sources
Photo Credit: Leonardo
Defense & Military
Ondas Holdings Acquires Rotron Aero to Expand Kinetic Defense Portfolio
Ondas Holdings announces acquisition of UK-based Rotron Aero, adding heavy-fuel engines and loitering munitions to its defense capabilities.
This article is based on an official press release from Ondas Holdings.
Ondas Holdings Inc. (NASDAQ: ONDS) has announced a definitive agreement to acquire Rotron Aero, a United Kingdom-based specialist in advanced rotary engines and unmanned aerial systems (UAS). The Acquisitions represents a significant strategic pivot for Ondas, expanding its portfolio from primarily surveillance and data solutions into the “kinetic” defense sector, specifically targeting the market for loitering munitions and heavy-fuel propulsion systems.
According to the company’s announcement on February 2, 2026, the transaction will be structured as a combination of cash and stock. The deal is subject to customary closing conditions, including regulatory approval under the United Kingdom’s National Security and Investment (NSI) Act, which governs the acquisition of sensitive dual-use and military technologies.
The acquisition targets Rotron Aerospace Limited, founded by Gilo Cardozo, and is distinct from the U.S.-based component manufacturer AMETEK Rotron. By integrating Rotron’s proprietary propulsion technology, Ondas aims to secure a critical supply chain for heavy-fuel engines, a key requirement for military logistics, while adding autonomous attack capabilities to its fleet.
Ondas Holdings described the move as a “vertical integration” play designed to reduce dependence on third-party vendors while entering the high-demand market for precision strike capabilities. The acquisition introduces two primary assets to the Ondas ecosystem: the Defendor loitering munition and a proprietary line of heavy-fuel rotary engines.
The addition of the Defendor system allows Ondas to compete in the “attritable warfare” sector, low-cost, expendable unmanned systems designed for one-way missions. This moves the company beyond Intelligence, Surveillance, and Reconnaissance (ISR) into direct combat support.
“Modern conflicts demand systems that can operate at range, persist over time, and execute missions without continuous human control.”
, Eric Brock, CEO of Ondas Holdings
A critical component of the deal is Rotron’s expertise in heavy-fuel engines, which run on JP-8 or Jet-A1 fuel. These fuels are standard for military logistics, making the engines highly valuable for NATO and allied defense programs. By owning the engine manufacturer, Ondas mitigates supply chain risks often associated with high-performance drone propulsion. Headquartered in the United Kingdom, Rotron Aero was established in 2008 and has developed a reputation for high-power-to-weight ratio propulsion systems. The company’s technology portfolio includes:
Gilo Cardozo, Founder of Rotron, emphasized the synergy between the two companies in the official release.
“This marks a defining moment in Rotron’s journey… By combining our propulsion-led engineering… with Ondas’ autonomous systems architecture… we will gain the scale to deliver more capability, faster.”
, Gilo Cardozo, Founder of Rotron Aero
From Surveillance to Strike: This acquisition places Ondas in direct competition with established defense players like AeroVironment, maker of the Switchblade, and newer disruptors like Anduril Industries. The shift to “kinetic” systems suggests Ondas is responding to the rapid evolution of drone warfare observed in recent global conflicts, where the line between reconnaissance and strike capabilities has blurred.
Regulatory Hurdles: The requirement for approval under the UK’s National Security and Investment Act is not a trivial formality. As Rotron possesses sovereign UK defense capabilities, regulators will likely scrutinize the transfer of intellectual property to a US-based holding company. However, the deal also promises to establish a stronger physical foothold for Ondas in the UK and NATO markets, potentially opening doors to Ministry of Defence programs that require local manufacturing.
Financial Context: While specific financial terms were not disclosed in the press release, market data suggests Rotron is a specialized engineering firm rather than a mass manufacturer. This indicates the acquisition is likely an “acqui-hire” and IP play intended to bolster Ondas’ technical depth rather than immediately adding massive revenue volume.
What is the difference between Rotron Aero and AMETEK Rotron? What is a “heavy-fuel” engine? When will the deal close? Sources: Ondas Holdings Press Release
Ondas Holdings to Acquire Rotron Aero, Signaling Shift into Kinetic Defense Market
Strategic Rationale: Vertical Integration and Lethal Capabilities
Entering the Loitering Munition Market
Securing the Supply Chain
About Rotron Aero
AirPro News Analysis
Frequently Asked Questions
Rotron Aero (Rotron Aerospace Limited) is a UK-based company founded by Gilo Cardozo that specializes in drone engines and loitering munitions. AMETEK Rotron is a separate, US-based entity known for manufacturing cooling fans and blowers. Ondas is acquiring the UK-based Rotron Aero.
Heavy-fuel engines operate on kerosene-based fuels like JP-8 or Jet-A1, which are the standard fuels used by military aircraft and vehicles. Most commercial drones use gasoline or batteries, which creates logistical challenges in combat zones where gasoline is scarce and dangerous to transport.
The deal was announced on February 2, 2026. It is currently subject to regulatory review, including a standard assessment period under the UK NSI Act, which typically takes 30 working days but can be extended.
Photo Credit: Ondas
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