FirstSpear

Archive for the ‘Aviation’ Category

GA-ASI Opening a New Facility in Dayton, Ohio

Tuesday, September 15th, 2026

World Leader in Uncrewed Aircraft Establishing an Innovation Hub for Hardware and Software Development Supporting USAF Programs

DAYTON – 14 September 2026 – General Atomics Aeronautical Systems, Inc. (GA-ASI), the world leader in Uncrewed Aircraft Systems (UAS), Ohio Gov. Mike DeWine, JobsOhio and the Dayton Development Coalition today announced that GA-ASI is expanding its footprint with a new 22,000-square-foot innovation hub in Dayton, Ohio, focusing on hardware and software development for U.S. Air Force (USAF) programs. With the support of Synergy Building Systems, the new facility will open in Spring 2027 near Wright-Patterson Air Force Base (WPAFB), home to the Air Force Life Cycle Management Center (AFLCMC) and the Air Force Research Laboratory (AFRL).

The new facility is in addition to GA-ASI’s existing location outside WPAFB that opened in 2014. The addition will expand GA-ASI’s local footprint by more than seven times the existing square footage. It is expected to employ 50 full-time employees initially, drawn primarily from the local community, with support from JobsOhio and the Dayton Development Coalition, which will help promote and fill these new positions. Anyone interested in applying for a position at GA-ASI should go to www.ga.com/careers.

“GA-ASI’s decision to choose Ohio for its new innovation hub speaks to Ohio’s aviation heritage and the ingenuity of our people,” said Ohio Governor Mike DeWine. “This continued growth is part of a long-term strategy to deliver the facilities, infrastructure and talent necessary to ensure UAS pioneers can scale operations and succeed here in Ohio.”

The facility will serve as a central hub for open, modular, and affordable hardware, software, and autonomy development, supporting rapid prototyping, integration, and testing of next-generation UAS capabilities. It will also feature a state-of-the-art mission operations center, enabling remote flight control of GA-ASI aircraft, as well as experimentation, training, and demonstration activities in close coordination with the company’s USAF and industry partners.

“Growing our footprint in Dayton allows GA-ASI to bring its long-standing UAS and sensing expertise to a region recognized as a premier center for advanced technology. This expansion will enable closer collaboration with local industry and more frequent interaction with our U.S. Air Force customer,” said GA-ASI Vice President of DoD Strategic Development Patrick Shortsleeve.

“GA-ASI’s latest investment in Ohio reinforces our state’s vital role in strengthening America’s national defense,” said JobsOhio President and CEO J.P. Nauseef. “In partnership with the Dayton Development Coalition, we welcome this cutting-edge facility, which will advance critical aircraft hardware and software systems, create 50 new jobs in Beavercreek, and position GA-ASI closer to its private-sector partners and customers at Wright-Patterson Air Force Base.”

Ohio’s Aerospace & Defense sector is built for the speed our mission now demands. More than 640 aerospace facilities and 400 defense contractor organizations — supporting 418,000 jobs and roughly $55 billion in annual economic output — operate in collaboration with Wright-Patterson Air Force Base, the Air Force Research Laboratory, the NASA Glenn Research Center, and the National Advanced Air Mobility Center of Excellence (NAAMCE). That concentration shortens the distance from concept to manufacturing: in Ohio, companies can dream it, build it, test it, and scale it without leaving the state.

Synergy Vice President John Kopilchack said: “We are very excited to welcome General Atomics Aeronautical Systems, Inc. into our growing Synergy Defense portfolio. Synergy remains committed to clients like GA-ASI who are inventing and pioneering modern solutions for our warfighters.”

GA-ASI has been a supplier of UAS, including the Predator® and Reaper® platforms, to the U.S. Air Force for the past 30 years. In June, GA-ASI was awarded a production contract from USAF to build the new FQ-42A Collaborative Combat Aircraft (CCA), a purpose-built uncrewed fighter jet developed as part of ongoing investment in next-generation semi-autonomous combat aircraft.

JobsOhio plans to provide assistance for the project, which will be made public after a final agreement is executed. In addition, the project may pursue a Job Creation Tax Credit from the Ohio Department of Development at a future Tax Credit Authority meeting.

GPS-Free Test Flight Success Marks Critical Advance for Aviation, National Security

Wednesday, September 9th, 2026

The Defense Innovation Unit’s latest quantum sensing milestone shows aircraft can safely and accurately navigate vast stretches of ocean without relying on the same GPS that millions of civilians use to move through traffic.

The groundbreaking flight test was a success for MagNav, DIU’s magnetic navigation program, and is a critical advancement for the future of aviation and national security.

“This is a significant win for the department’s quantum sensing priorities, showcasing that MagNav capabilities are no longer a distant research goal,” said Kyle Norman, deputy director of DIU’s Kill Web portfolio. “We moved from problem sourcing to solicitation to prototype in a matter of months.”

The MagNav program launched in spring 2024 under the name “Transition of Quantum Sensing.” A total of 72 companies submitted applications to the commercial solutions opening, with Honeywell Aerospace ultimately selected to move forward with prototype development.

MagNav systems use quantum sensors to read the Earth’s natural magnetic field, turning the planet’s crust into an invisible, unjammable map that allows pilots to navigate safely regardless of weather, time of day or GPS availability.

The Earth’s magnetic field cannot be spoofed or blocked by hostile forces, Norman said. The new technology also significantly improves on legacy backup options such as radar mapping or visual cues like rivers, highways and cities.

The system was installed aboard an Embraer 170 aircraft to demonstrate real-world capabilities. The route took the aircraft over the Pacific Ocean, from Seattle’s Puget Sound to southern Alaska and back.

After four hours and 23 minutes of flying over the ocean without GPS, the MagNav system improved position accuracy by 89% compared to traditional backup navigation methods. The navigation data streamed directly to the pilots in real time via standard tablets, showing that military personnel can field the technology without a massive overhaul of cockpit instruments.

The test mission also added the complexity of the ocean surface — a featureless, constantly shifting expanse that would traditionally require internal sensors in the absence of GPS.

The problem, however, is that classical sensors drift over time. What starts as a small miscalculation can become a massive, dangerous deviation if left unchecked. By reading the Earth’s magnetic signatures, MagNav gives pilots a highly accurate, continuous map even when no visible landmarks exist.

Honeywell and DIU are preparing to demonstrate the technology on a U.S. military C-17 Globemaster III cargo aircraft later this year. By proving that aircraft can maintain pinpoint accuracy over the featureless ocean without GPS, the War Department is taking a significant step toward ensuring that military and commercial pilots can safely reach their destinations, no matter what happens to the satellite networks above them.

By Defense Innovation Unit Staff

Curtiss-Wright to Provide Sensor Processing for Northrop Grumman’s Improved Threat Detection System

Wednesday, September 2nd, 2026

ITDS processor, paired with Northrop Grumman’s ATHENA sensor, will enhance aircraft and aircrew survivability

ASHBURN, Va. – Sept. 1, 2026 – Curtiss-Wright announced today that it was awarded an approximately $14 million contract from Northrop Grumman to provide sensor processing equipment supporting the Phase II development of the U.S. Army’s Improved Threat Detection System (ITDS), the future threat warning system designed to protect aircraft from air defense systems. The program aims to deliver advanced missile warning and threat detection capabilities across current and future U.S. Army aviation platforms, including the AH-64 Apache and MV-75 Cheyenne Future Long-Range Assault Aircraft.

Curtiss-Wright’s ITDS integrated processor provides a modular, ruggedized solution designed to ingest high-bandwidth sensor data, perform real-time processing and data fusion, and enable rapid integration of new capabilities within an open systems architecture that is purpose built for portability from platform to platform. Paired with Northrop Grumman’s Advanced Tactical Hostile Engagement Awareness (ATHENA) sensor, Curtiss-Wright’s integrated processor will enable timely missile warning and critical information flow across the platform to protect aircraft and aircrews.  

“Combining Curtiss-Wright’s highly durable processing capability with Northrop Grumman’s ATHENA sensor will result in an unrivaled threat detection capability, providing the potential to protect aircrews from virtually any weapon system – air to air or surface to air – employed by our adversaries,” said Brian Perry, Senior Vice President and General Manager, Curtiss-Wright Defense Solutions. “Our integrated processor excels at rapidly processing and transporting large amounts of data in the most demanding environments, making it the optimal computing solution for latency-critical sense and response protection systems such as ITDS.”

Curtiss-Wright’s integrated processor utilizes MOSA- and SOSA aligned modules integrated within a conduction-cooled chassis designed for airborne deployment. High-speed optical interfaces and configurable I/O provide support for both modern digital sensors and legacy aircraft interfaces, enabling integration across a wide range of aircraft protection architectures. The integrated processor also delivers groundbreaking artificial intelligence-enabled compute architecture and real-time net-centric data sharing which ensures the platform can evolve alongside emerging sensor technologies, algorithms, and countermeasure systems.

About ATHENA

The ATHENA sensor is designed to enhance aircraft survivability by providing 360-degree situational awareness and high-resolution threat detection, capable of geolocating electro-optical/infrared (EO/IR) threats such as unmanned aerial systems, air to air missiles, anti-tank guided missiles, and rocket-propelled grenades.

About ITDS

ITDS will provide the capability to detect, classify, cue and declare on existing and emerging EO/IR threats. ITDS is designed to operate based on rapid threat classification and initiating the appropriate countermeasure system, such as directable infrared and/or expendable countermeasures. ITDS also provides appropriate hostile fire indications, differentiating between small arms and rocket threats.

ITDS will be a Future Airborne Capability Environment (FACE)-conformant and Modular Open Systems Approach (MOSA)-compliant system, able to operate on a digital backbone. It will be composed of IR sensors, a processor, and a memory module. 

For additional information about Curtiss-Wright Defense Solutions products, please visit defense-solutions.curtisswright.com and LinkedIn.

Soldier Insights Help Advance Cheyenne Development

Sunday, August 9th, 2026

REDSTONE ARSENAL, Ala. — The Project Office for the Future Long Range Assault Aircraft recently executed a critical design iteration of the Army’s next-generation assault aircraft, the MV-75 Cheyenne, at Redstone Arsenal during a special user evaluation. Over the course of a week in mid-May, a team of operators from the 101st Combat Aviation Brigade (CAB), engineers and trainers gathered to focus on a critical aspect of modern aviation: the pilot display system and its impact on cognitive workload.

Welcoming the group, Col. Jeffrey Poquette, project manager for FLRAA, highlighted the unique capabilities this new assault tilt-rotor will bring to the battlefield. He emphasized that the insights gathered during this intensive week-long session will directly inform the detailed design of the Cheyenne and will shape decisions leading up to the first flight and eventual delivery to the 101st Airborne Division.

A Collaborative, Operator-Focused Approach

This was not just a technical exercise — it was a collaborative effort designed to put operators at the center of the design process. Leading the effort was Tia Larsen-Calcano, a human factors engineer in PM FLRAA and Maj. Craig Hunninghake, FLRAA assistant program manager.

Participants included pilots and crew from the 101st Airborne Division, subject matter experts from the Army Aviation Center of Excellence/Operational Test Directorate along with representatives from the U.S. Army Special Operations Aviation Command and the Army’s Aviation Flight Test Directorate. This cross-functional team structure ensured that the evaluation captured a wide range of operational perspectives, from those who will fly and fight in the Cheyenne to those responsible for training, testing and integrating the aircraft into Army formations.

Critical to this evaluation was the APEX2 lab from the U.S. Army’s Combat Capabilities Development Command. This office specializes in hardware and software rapid prototyping, and human factors-based evaluation of the aircrew behicle interface.

“The team at APEX2 quickly integrated a tiltrotor flight and avionics model using existing laboratory assets and software baselines from other platforms,” said Hunninghake. “Their ability to capture user feedback, update design concepts with user recommendations overnight and fly the participants’ ‘dream data set’ all within a single week is unmatched. This empowered the operators to actively participate in the design and evaluation of the avionics that they will one day fly.”

CW2 Julian Dilg, a UH-60 Black Hawk pilot, noted “The displays are inherently different, so we were able to work together and bounce ideas off of each other and gain insight.”

CW2 Jordan Brooks, a CH-47 Chinook pilot, added, “Sharing those insights gave us the ability to find enough common ground to work with in order to decide what changes needed to be made to display the information needed to fly it most effectively.”

Pilot Display System: Reducing Cognitive Load, Enhancing Performance

A central focus of the evaluation was the pilot display system. The digital interface provides aviators with critical flight, navigation and mission data. As the Army transitions to the advanced tilt-rotor Cheyenne, the complexity and speed of operations demand a display that not only presents information clearly but also minimizes cognitive workload.

Throughout the evaluation, pilots from the 101st and other organizations performed a series of simulated missions and scenarios. They provided real-time feedback on the intuitiveness of the display, the clarity of alerts and warnings, and the ease of accessing key data such as power applied versus power available, a crucial metric for tiltrotor performance and safety.

Operators highlighted the importance of being able to quickly interpret engine and power management data, especially during high-stress maneuvers or degraded visual environments. The evaluation team paid close attention to how information was prioritized and layered on the display, seeking to avoid information overload while ensuring that no critical cues were missed.

When asked what had the most meaningful impact on the entire team during the week, Dilg and Brooks emphasized, “We knew that it wasn’t just a check-the-box exercise. The entire team made us all feel valued and they really appreciated the input that we provided. We were happy to provide the input, but we were impressed at the way the team seemed to appreciate the work we put into this week.”

Both pilots agreed that flying the Cheyenne virtual prototype on the first day before they began evaluating the data sets familiarized them with the new aircraft, which was extremely helpful.

Informing Detailed Design and First Flight Decisions

The feedback from the evaluation is already shaping the detailed design of the MV-75’s cockpit. Engineers from Bell and Army program offices are incorporating operator recommendations to refine display symbology, streamline menu navigation and enhance alerting logic. For example, several pilots noted that grouping power management data with related performance cues reduced the time needed to make critical decisions, directly supporting safer and more effective operations.

These operator-driven insights are not just academic, they inform key decisions ahead of the MV-75’s first flight. By validating display concepts and workload management strategies early, the program reduces risk and increases the likelihood of a successful test campaign and smooth transition to operational units.

Preparing for the Future

The collaborative approach of the special user evaluation — bringing together operators, testers, engineers and trainers — demonstrates the Army’s commitment to fielding an aircraft that meets the real-world needs of its aviators. By focusing on the pilot display system and cognitive workload, the FLRAA program is setting the stage for a safer, more effective and more user-friendly MV-75 Cheyenne, ready to serve the 101st and the broader Army aviation community for decades to come.

By Heather Douglas, Capability Program Executive Aviation

Saab Receives Order for GlobalEye

Monday, July 27th, 2026

Saab has received an order for two GlobalEye aircraft from a country in the Middle East region. The order value is SEK 10.1 billion, and deliveries will take place in 2030. 

“This order underscores our commitment to providing customers with mission-proven, multi-domain AEW&C capability. The increasing international interest in GlobalEye reflects its effectiveness and reliability in modern air defence operations”, says Micael Johansson, President and CEO of Saab.

GlobalEye is an advanced multi-domain AEW&C solution with an array of active and passive sensors that provide long-range detection and identification of objects in the air, at sea and over land. By providing real-time information to joint forces, GlobalEye enables enhanced situational awareness of the surrounding areas and early detection of threats.

Due to the nature of the industry, circumstances concerning the customer and national security interests, no further information regarding this order or the customer will be provided.

NATO Selects Saab’s GlobalEye

Thursday, July 9th, 2026

At the NATO summit in Ankara, Türkiye, Secretary General Mark Rutte announced that NATO will begin formal negotiations with Saab regarding the acquisition of up to ten GlobalEye Airborne Early Warning & Control (AEW&C) systems. 

At this point, Saab has not signed a contract or received an order related to the announcement.

NATO has identified the need to replace its existing AEW&C capability as part of a broader effort to modernise and strengthen the Alliance’s surveillance and situational awareness capabilities. The announcement by the NATO Secretary General confirms that Saab’s GlobalEye is NATO’s chosen solution for its future AEW&C capability.

“We are honoured and proud to support NATO in its next-generation AEW&C capability. We are confident that GlobalEye is the right choice for the Alliance, delivering proven capability, adaptability and long-term operational advantage. Today’s announcement clearly positions GlobalEye as the world-leading solution for advanced airborne early warning and control. We look forward to the next steps in the negotiations,” says Micael Johansson, President and CEO of Saab.

GlobalEye will enable the Alliance to monitor vast areas of land, sea and air, significantly enhancing NATO’s ability to detect and respond to a wide range of threats. GlobalEye combines Saab’s Erieye Extended Range radar with an advanced suite of sensors and a multi-domain Command and Control (C2) system, on a Bombardier Global 6500 aircraft. As an AEW&C system, GlobalEye provides long-range detection with high update rates, capable of identifying low-observable and stealthy threats, as well as drones, ballistic and hypersonic missiles, even in complex environments characterised by heavy clutter and electronic jamming.

Saab will now proceed to formal negotiations with the NATO Support and Procurement Agency (NSPA) to secure a contract.

USSOCOM Seeks Air Loitering Munition for Use with Fixed Wing Aircraft

Thursday, July 2nd, 2026

In a Sources Sought Notice issued recently to industry, Headquarters (HQ) USSOCOM Special Operations Forces (SOF), Acquisition, Technology & Logistics (AT&L), Program Executive Office-Fixed Wing (PEO-FW) is performing market research to understand Industry capability to deliver an Air Loitering Munition (ALM) Stand-Off Precision Guided Munition (SOPGM) with an extended range and capabilities beyond the current SOPGM portfolio. This capability was briefed by PEO-FW during SOF Week as it relates to the strike portfolio.

In particular they are seeking precision munitions which can be released from SOF fixed-wing air platforms (lugged munitions, Common Launch Tube (CLT) launched munitions or other release mechanism), preferably capable of employment from CLT.

Attributes:

Munition Weight: Not-to-exceed 95 lbs

System form factor:

For CLT form factor: 5.9 inch diameter, 42 inches max overall length.

For Lugged or other release mechanism: 14 inch lug spacing, 90 inches overall length (maximum), 9 inch diameter (maximum); release from either a BRU-71 or BRU-78

Seeker Assembly: Passive system (limited Radio Frequency emissions) with integrated Automatic Target Recognition (ATR)

Warhead/payload weight: maximize kinetic warhead in conjunction with munition NTE weight

Employment Environment: Contested and non-Contested with Intra Missile Communications

Minimum TRL 6

Range: min 75NM from launch point to loitering point – launch altitudes between 5000 to 30,000 feet MSL

Loitering Time: min 40min once reaching loitering point at altitudes between 500-3000 AGL

Speed: 50 -100 kts cruise and loitering, 100kts+ minimum dash speed on attack profile

C2 Integration: System shall support government-owned FANTOM Core collaborative mission autonomy to command and control the platform flight controller via a machine-to-machine (M2M) API and/or C2 integration via BMS (Battle Management System)

Logical/electrical Interface Capability: Identify compatibly, with substantiation, of 1553/UAI (via 1760) or BMS Generic CLT compatible  

Environmental Profile: Typical operational temperatures and dynamic forces associated with SOF aircraft

Mission Profile: Pre-planned routing with altitude changes and/or direct-to loiter point

Cost target: Best value at quantity points of 500, 1000, 3000 (ROM level costing sufficient)

Interested parties must submit a white paper by Jul 27, 2026 12:00 PM EDT.

U.S. Air Force Awards GA-ASI Production Contract for FQ-42A CCA

Friday, June 19th, 2026

Company Will Produce Service’s New Uncrewed Combat Jets

SAN DIEGO – 17 June 2026 – General Atomics Aeronautical Systems, Inc. (GA-ASI) has received a production contract from the U.S. Air Force (USAF) for the FQ-42A Collaborative Combat Aircraft (CCA). The initial order is a significant milestone, beginning the delivery of production aircraft to the warfighter. GA-ASI designed, developed and flight-tested FQ-42A on an accelerated schedule unlike any fighter in recent history.

“This is an exciting day for our company and the nation,” said company President David R. Alexander. “Moving to production on FQ-42A is the result of an extraordinary partnership and many years of investments between General Atomics and the U.S. Air Force. We’ve been preparing for this order, and manufacturing is already well underway.”

The FQ-42A is a purpose-built, uncrewed fighter developed as part of ongoing investment in next-generation semi-autonomous combat aircraft. The aircraft’s modular design enables rapid integration of mission systems and mission autonomy software. GA-ASI’s software architecture, demonstrated through live flight tests on multiple airframes, provides the foundation for human-machine teaming in complex combat scenarios.

The development effort by GA-ASI fast-tracked, with the aircraft moving from contract award to first flight in just 15 months, one of the fastest rollouts of a new fighter in history.

GA-ASI was selected by the U.S. Air Force in 2024 to build production-representative flight test articles for the CCA program. The YFQ-42A successfully conducted its maiden flight in August 2025, validating a “genus/species” concept for rapid, modular, and low-cost uncrewed fighter aircraft development previously demonstrated in partnership with U.S. Air Force Research Laboratory (AFRL).

GA-ASI’s approach enables a common core aircraft design that can be rapidly adapted for different mission sets and service requirements. GA-ASI’s Gambit Series concept for CCA envisions multiple variants that serve specific needs, including long-endurance surveillance; air-to-air superiority; air-to-ground strike and more.

GA-ASI has been building and flying uncrewed jets for nearly two decades, beginning with the company-funded, weaponized MQ-20Avenger® in 2008. The company’s XQ-67A Off-Board Sensing Station jet, developed in collaboration with AFRL, is a cutting-edge model for autonomous collaborative platforms with advanced airborne sensing and served as a flying prototype for the FQ-42A concept.

Pre-production versions of the new fighter were designated “YFQ-42;” with “Y” designating a prototype phase. The award of an Air Force production contract means the forthcoming aircraft will be among the first in history to carry the novel FQ designation: “F” for fighter and “Q” designating the platform is uncrewed.