This article is based on an official press release from Odys Aviation and Motion Applied.

Odys Aviation and Motion Applied Partner to Deliver “Closed-Loop” Hybrid Propulsion

In a significant move to accelerate the commercialization of regional vertical takeoff and landing (eVTOL) aircraft, California-based developer Odys Aviation has announced a strategic engineering collaboration with Motion Applied. According to the joint announcement, the partnership aims to integrate Motion Applied’s high-performance silicon carbide (SiC) inverter technology with Odys Aviation’s proprietary generators to create a flight-ready, hybrid-electric propulsion system.

The collaboration focuses on a “closed-loop” architecture designed to power both Odys’ uncrewed cargo aircraft, Laila, and its planned regional passenger airliner, Alta. By combining mechanical and electrical components into a unified control stack, the companies intend to de-risk the certification process and expedite the timeline to commercial delivery. Initial operations for the cargo platform are targeted for 2026.

Engineering a Unified Propulsion System

The core of this partnership is the integration of Motion Applied’s AMPEX MCU-600 inverter with Odys Aviation’s hybrid powertrain. Motion Applied, which rebranded from McLaren Applied in August 2025, brings extensive experience from high-performance sectors such as Formula 1 motorsport and mining. The companies state that this collaboration moves away from assembling disparate off-the-shelf parts in favor of a tightly coupled system.

Technical Specifications

According to technical details released by the companies, the new propulsion system leverages an 800V architecture and Silicon Carbide (SiC) technology. Key specifications include:

• Efficiency: The system boasts a typical efficiency of greater than 97%, peaking at 99%.
• Switching Frequency: A variable range of 8–32 kHz allows for smoother power delivery and reduces the size of passive components like capacitors and inductors.
• Power Density: The system is designed for high power density, a critical factor for aircraft weight savings. Marine variants of the technology have reportedly delivered over 400kW in a package weighing approximately 6.4kg.

The “closed-loop” control system is designed to react instantly to the rapid power fluctuations required during the transition from vertical hover to forward flight. Furthermore, the system features “graceful degradation” capabilities, allowing it to isolate faults, such as a single winding failure, and continue operating safely rather than shutting down completely.

“Hybrid propulsion must be architected from the ground up as a unified system.”

, James Dorris, CEO of Odys Aviation

Scalable Platforms: From Cargo to Passengers

The propulsion technology developed through this partnership is scalable and intended for two distinct airframes currently under development by Odys Aviation.

Laila: Uncrewed Cargo

The first beneficiary of the new system will be Laila, an autonomous aircraft designed for logistics and defense applications.

• Range: Approximately 450 miles (725 km).
• Payload: Around 130 lbs (60 kg).
• Timeline: A pre-production prototype has been built, with flight testing scheduled in the United States followed by operational trials in Oman in the first quarter of 2026.

Alta: Regional Air Mobility

The technology will subsequently scale to power Alta, a larger aircraft focused on regional passenger transport and heavy cargo.

• Capacity: Designed for 9 passengers or approximately 3,500 lbs of cargo.
• Performance: The aircraft targets a cruise speed of roughly 345 mph and a hybrid range of 750 miles.
• Certification: Full type certification is currently targeted for approximately 2028.

AirPro News Analysis

This partnership highlights a critical shift in the eVTOL and regional air mobility sector: a move from pure airframe aerodynamics to a “propulsion first” certification strategy. By partnering with Motion Applied, a supplier with “production-proven” hardware heritage, Odys Aviation appears to be mitigating the development risks that often plague startups attempting to build proprietary electrical systems from scratch.

Furthermore, the focus on hybrid-electric-aviation propulsion distinguishes Odys from competitors like Joby or Archer, who are primarily focused on all-electric battery systems for short urban hops. The hybrid approach addresses “range anxiety” and infrastructure gaps, theoretically enabling flights between major regional hubs, such as Los Angeles to San Francisco, without requiring immediate charging infrastructure at every destination.

Strategic Context and Timeline

The collaboration comes shortly after Motion Applied’s rebranding from McLaren Applied in August 2025, signaling the UK-based company’s broader push into high-reliability industrial and aerospace sectors. For Odys Aviation, the deal follows a $26 million Series A funding round secured in October 2025 to accelerate flight testing.

Samir Maha, CEO of Motion Applied, emphasized the alignment of the two companies, noting that the partnership brings “absolute clarity of purpose” by integrating electrical, mechanical, and software teams early in the design cycle.

Frequently Asked Questions

What is the main advantage of the AMPEX MCU-600 inverter?
The inverter uses Silicon Carbide (SiC) technology, which offers superior thermal handling and efficiency compared to traditional silicon. Its 800V architecture allows for thinner wiring, reducing the overall weight of the aircraft.

When will Odys Aviation’s aircraft begin operations?
The uncrewed cargo aircraft, Laila, is scheduled for proof-of-concept operations in Oman in Q1 2026. The passenger aircraft, Alta, is targeting certification around 2028.

Why is Odys Aviation pursuing hybrid propulsion instead of all-electric?
Hybrid propulsion offers significantly longer range, making it suitable for regional travel (e.g., 750 miles) rather than just short intra-city hops. It also reduces reliance on ground charging infrastructure.

Sources: eVTOL Insights, Odys Aviation, Motion Applied

This article is based on an official press release from Airbus.

Airbus Advances “Unjammable” Quantum Navigation to Counter GPS Threats

On March 4, 2026, Airbus released new details regarding its development of “MagNav” (Magnetic Anomaly-based Navigation), a quantum sensing technology designed to determine an aircraft’s location using the Earth’s magnetic field. As geopolitical instability continues to impact Global Positioning System (GPS) reliability through jamming and spoofing, the aerospace giant is positioning this technology as a critical, unjammable backup for commercial and military aviation.

The system, which has moved from proof-of-concept into robustness testing as of March 2026, leverages the unique magnetic “fingerprint” of the Earth’s crust. By reading these immutable geological signatures, aircraft can verify their position without relying on external satellite signals, offering a passive and autonomous navigation solution.

How MagNav Works: Reading the Earth’s Magnetic Map

According to the Airbus announcement, MagNav operates on a principle similar to a hiker matching terrain to a topographic map, but instead of hills and valleys, the system reads magnetic anomalies. The Earth’s crust contains magnetized minerals that create specific, stable variations in the magnetic field at every location on the planet.

To detect these minute variations, Airbus is utilizing ultra-sensitive quantum magnetometers. These sensors, potentially based on technologies like optically pumped magnetometers or nitrogen-vacancy centers in diamonds, are capable of detecting magnetic shifts that standard sensors would miss.

Filtering the Noise with AI

One of the primary technical hurdles in magnetic Navigation is the “noise” generated by the aircraft itself. Engines, avionics, and electrical systems create their own magnetic fields that can obscure the Earth’s signal. Airbus reports that it is using advanced Artificial Intelligence (AI) and Large Quantitative Models (LQMs) to filter out this interference in real-time.

Once the signal is cleaned, the system compares the reading against a pre-loaded global magnetic anomaly map to pinpoint the aircraft’s coordinates. Because the Earth’s magnetic field is a planetary force, it cannot be “turned off” or jammed by human actors, unlike the weak radio signals used by GNSS/GPS constellations.

Since quantum sensors measure the Earth’s magnetic field, a physical force not reliant on or created by humans, there is nothing to jam. It could one day be the quickest way of telling if a GPS signal is accurate or not.

Airbus Press Release, March 4, 2026

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Development Timeline and Strategic Partnerships

While the March 2026 update highlights current robustness testing, the program relies on a long-standing collaboration between Airbus’s Silicon Valley innovation center, Acubed, and SandboxAQ, an AI and quantum spin-off from Alphabet.

Significant milestones in the program’s history include:

• 2023: Flight testing begins for the “AQNav” system.
• 2024: The “Quantum Mobility Quest,” a challenge launched by Airbus and BMW Group, fosters a broader ecosystem for quantum sensor innovation.
• July 2025: SandboxAQ and Acubed announce results from extensive nationwide testing in the United States.

Proven Accuracy in Flight

Data released by SandboxAQ and Acubed in July 2025 demonstrated the system’s viability for commercial operations. During over 150 flight hours covering 44,000 kilometers across the U.S., the system achieved high-precision results.

According to the test data, the system maintained RNP1 accuracy (within 1 nautical mile) for 95% of the flight time and RNP2 accuracy (within 2 nautical miles) 100% of the time. These figures suggest the technology is capable of supporting en-route navigation standards, outperforming traditional Inertial Navigation Systems (INS) in scenarios where GPS is denied.

Our campaign was not about demonstrating proof of concept performance under ideal conditions, it was about proving AQNav’s viability under the noisy, messy, and unpredictable environments real pilots face every day.

Elijha Williams, SandboxAQ (July 2025)

Broader Quantum Applications

Beyond navigation, Airbus indicated in its March 2026 release that quantum technologies are being applied to other areas of aerospace engineering. The company is utilizing quantum computing to simulate interactions at the atomic level, specifically for:

• Aerodynamics: Optimizing wingbox designs to reduce weight and fuel burn.
• Sustainable Energy: Modeling hydrogen fuel cell interactions to improve propulsion efficiency.

AirPro News Analysis

The acceleration of MagNav development comes at a critical time for the aviation industry. Over the past two years, reports of GPS spoofing, where an aircraft is fed false location data, have skyrocketed near conflict zones in Eastern Europe and the Middle East. These attacks can confuse onboard navigation computers, triggering false terrain warnings or forcing pilots to revert to manual navigation methods.

We believe the primary value of MagNav in the near term will be as a “truth layer.” While it may not replace GPS immediately for precision landing approaches, it serves as an independent auditor. If the GPS tells the flight computer the plane is over Cairo, but the magnetic reading indicates it is over the Mediterranean, the system can immediately flag the discrepancy. This “system-of-systems” approach enhances Safety without requiring a complete overhaul of existing avionics infrastructure.

Sources

• Airbus
• SandboxAQ

This article is based on an official press release from Georgia Tech.

Georgia Tech Secures $88 Million State Investment for New Aerospace Engineering Hub

The Georgia Institute of Technology is poised to begin one of its most ambitious infrastructure projects in decades following the approval of the state’s amended fiscal year 2026 budget. According to an official announcement from the university, the state has allocated $88 million for the design and construction of a new aerospace engineering building. This funding, approved by Georgia Governor Brian Kemp, marks a significant modernization effort for the Daniel Guggenheim School of Aerospace Engineering.

In addition to the state’s substantial commitment, the project has garnered private industry support. The Delta Air Lines Foundation has pledged a separate $5 million gift to aid the development of the facility. The combined funding aims to replace aging infrastructure with a state-of-the-art complex designed to support next-generation research in aviation and space exploration.

The new facility is expected to encompass approximately 200,000 square feet, providing a massive upgrade over the school’s current buildings, some of which date back to the 1930s. University officials state that this investment is critical for maintaining Georgia’s status as a national leader in the aerospace sector, which serves as a vital economic engine for the region.

Modernizing a Historic Program

The Daniel Guggenheim School of Aerospace Engineering is currently ranked No. 1 among public universities for its undergraduate and graduate programs. However, the physical infrastructure housing these programs has lagged behind the rapid technological advancements of the 21st century. The university reports that the current main facilities were constructed in the 1930s and 1960s, eras that predate modern composite materials, electric aviation, and autonomous systems.

According to the project details released by Georgia Tech, the new building will feature specialized laboratories and collaborative spaces that the current footprint cannot support. Planned features include:

• Advanced Propulsion Labs: Dedicated spaces for research into combustion and next-generation propulsion systems.
• eVTOL & Autonomy Research: Facilities specifically designed for electric vertical takeoff and landing aircraft and unmanned aerial systems.
• Student Makerspaces: Expanded studios for hands-on prototyping and design.

Mitchell Walker, Chair of the Daniel Guggenheim School of Aerospace Engineering, emphasized the transformative nature of the project in a statement:

“The new facility will fundamentally reshape how we conduct research and educate our students. Next-generation research spaces combined with hands-on learning environments… will enable work our current footprint can’t support.”

Mitchell Walker, Chair of the Daniel Guggenheim School of Aerospace Engineering

Economic Impact and Workforce Development

The investment is framed not just as an academic upgrade, but as a strategic economic imperative for the state of Georgia. According to data cited by the university, the aerospace industry is Georgia’s number one export and its second-largest manufacturing industry. The sector contributes an estimated $57.5 billion annually to the state’s economy.

With over 800 aerospace companies operating in the state, including industry giants like Delta Air Lines, Lockheed Martin, and Gulfstream, the demand for highly skilled engineers is robust. The new facility is intended to function as a pipeline for this workforce, ensuring that graduates are trained on equipment that matches or exceeds industry standards.

Ángel Cabrera, President of Georgia Tech, highlighted the alignment between the institute’s goals and the state’s economic needs:

“This investment will help us create world-class facilities to drive innovation and develop the workforce that Georgia needs to stay at the forefront of the aerospace industry.”

Ángel Cabrera, President of Georgia Tech

AirPro News Analysis

The Race for Infrastructure in Top-Tier Engineering

While Georgia Tech’s ranking remains at the top, the competition for talent and research grants in aerospace engineering is intensifying. Peer institutions have been aggressively upgrading their facilities to accommodate the shift toward “New Space” and sustainable aviation. By securing this $88 million investment, Georgia Tech is effectively future-proofing its dominance.

Critically, this project distinguishes itself from the smaller “Aircraft Hangar” project that broke ground in 2024. While the Hangar focuses on testing and prototyping, this new 200,000-square-foot facility represents a comprehensive academic headquarters. The involvement of Delta Air Lines is also strategically significant; it reinforces the tight integration between the university and the commercial aviation sector, suggesting that the curriculum and research conducted here will remain highly relevant to immediate industry challenges, such as sustainability and fleet modernization.

Frequently Asked Questions

When will the new building open?

While the funding has been approved for the amended FY 2026 budget, a specific completion date for the new $88 million building has not been publicly finalized. Large-scale academic projects of this size typically require 2–4 years for design and construction.

How is this different from the “Aircraft Hangar”?

The “Aircraft Hangar” (Aircraft Prototyping Laboratory) is a smaller, 10,000-square-foot facility focused on eVTOL testing that broke ground in August 2024. The new project funded by the $88 million investment is a much larger, 200,000-square-foot multidisciplinary academic and research hub.

Who is funding the project?

The primary funding comes from the State of Georgia ($88 million). The Delta Air Lines Foundation has also committed a philanthropic gift of $5 million.

Sources

• Georgia Tech News Center