Defense & Military
Lockheed Martin and Xanadu Advance Quantum Machine Learning for Defense
Lockheed Martin and Xanadu collaborate to enhance Quantum Machine Learning using photonic quantum hardware and Fourier-based operations for defense applications.

This article is based on an official press release from Lockheed Martin and Xanadu.
Lockheed Martin and Xanadu Partner to Redefine Quantum Machine Learning for Defense
On February 26, 2026, Lockheed Martin and Canadian quantum computing leader Xanadu announced a strategic research initiative aimed at advancing the foundational theory and application of Quantum Machine Learning (QML). The collaboration seeks to leverage quantum capabilities to improve generative models, potentially solving critical data scarcity issues in the defense and aerospace sectors.
According to the joint announcement, the partnership will focus on utilizing Xanadu’s photonic quantum hardware to perform Fourier-based operations. These operations are expected to allow quantum computers to learn complex data distributions more efficiently than classical systems, providing what the companies describe as a “decisive computational edge” for both defense and civilian users.
Advancing Generative AI with Quantum Hardware
The core technical objective of this initiative is to overcome the limitations of classical artificial intelligence, particularly when high-quality training data is limited or expensive to acquire. Classical generative AI models often require massive datasets to function effectively, a luxury not always available in high-stakes defense scenarios involving rare system failures or emerging threat signatures.
The Fourier Advantage
The research centers on the use of Fourier-based operations, a mathematical approach that decomposes signals into frequencies. While classical computers can perform these tasks, quantum computers are theoretically capable of executing Fourier transforms exponentially faster. By applying this advantage to generative models, the partnership aims to create systems that can generate realistic synthetic data or “fill in the blanks” for incomplete datasets.
Christian Weedbrook, CEO of Xanadu, emphasized the foundational nature of this research in the official announcement:
“This work is about rethinking the foundations of how quantum computers can learn… By revisiting core quantum primitives, we hope to uncover entirely new ways of representing and processing data.”
Photonic Integration
Xanadu’s approach utilizes photonic (light-based) qubits, which are particularly well-suited for continuous-variable quantum computing. This modality maps naturally to the mathematics used in neural networks. The collaboration will leverage PennyLane, Xanadu’s open-source software library, to train quantum circuits similarly to how neural networks are trained in classical machine learning.
Strategic Context and Industry Impact
This partnership aligns with Lockheed Martin’s broader “21st Century Security” strategy, which emphasizes a multi-vendor approach to emerging technologies. By collaborating with various leaders in the quantum space, the aerospace giant aims to integrate cutting-edge capabilities into mission-focused tools for sensing, navigation, and decision-making.
Lockheed Martin’s Quantum Ecosystem
According to recent industry reports, Lockheed Martin has been actively expanding its quantum portfolio leading up to this 2026 announcement. In November 2025, the company partnered with PsiQuantum to develop fault-tolerant algorithms for aerospace simulations. More recently, in February 2026, Lockheed signed a memorandum of understanding with Fujitsu to accelerate dual-use technologies.
Dani Couger, Lockheed Martin’s Quantum Technologies Lead, highlighted the national security implications of the new partnership with Xanadu:
“This collaboration… pushes the frontiers of QML and deepens our understanding of how future quantum systems may support national security and advanced technology development.”
Xanadu’s Technical Milestones
Xanadu enters this partnership following significant technical achievements. In June 2025, researchers from the company published a breakthrough in Nature demonstrating the generation of error-resistant photonic qubits (GKP states) on a chip. This development was a critical step toward proving the scalability of their approach for complex QML tasks.
AirPro News Analysis
While the immediate focus of this partnership is on defense applications, the implications of successful quantum generative models extend significantly into the civilian sector. In the pharmaceutical industry, similar models could theoretically generate valid molecular structures for drug discovery without the need to physically synthesize every candidate. In finance, they could create realistic market simulations to stress-test portfolios against rare “black swan” events. However, the timeline for deploying these capabilities remains dependent on the continued scaling of fault-tolerant quantum hardware.
Sources
Sources: Lockheed Martin
Photo Credit: Xanadu
Defense & Military
Whisper Aero Launches Collaborative Logistics Aircraft for US Military
Whisper Aero introduces autonomous hybrid-electric cargo drones with advanced STOL tech for US military logistics, flight testing in 2027.

This article is based on an official press release from Whisper Aero.
In May 2025, Tennessee-based aerospace Startups Whisper Aero unveiled its new Collaborative Logistics Aircraft (CLA) family during Special Operations Forces (SOF) Week in Tampa, Florida. According to the company’s official announcement, this new line of autonomous cargo drones is specifically designed to address the United States military’s escalating challenges with contested logistics in austere environments.
The Department of Defense currently relies heavily on large, runway-dependent Cargo-Aircraft, such as the aging C-130 fleet, which consume significant amounts of fuel. As the military shifts toward Agile Combat Employment (ACE), a strategy emphasizing decentralized operations, Whisper Aero proposes replacing single, massive cargo planes with distributed fleets of autonomous, hybrid-electric unmanned aerial systems (UAS). The press release notes that these “right-sized” aircraft are engineered to operate quietly from restrictive, degraded, or unmaintained runways at any time of day.
To achieve this, the CLA fleet utilizes Whisper Aero’s proprietary UltraQuiet™ electric ducted fans and a novel wing integration concept called JetFoil™. The development of this technology is being funded and accelerated by the U.S. Air Force through Strategic Finance Increase (STRATFI) and Operational Energy Capabilities Improvement Fund (OECIF) contracts.
Aircraft Specifications and Capabilities
Whisper Aero is adopting a phased approach to its aircraft development, beginning with an ultralight demonstrator before scaling up to heavy cargo variants. The official release highlights two primary models in the CLA family: the CLA Light and the CLA Heavy.
The CLA Light
Classified as a Group 3 UAS, the CLA Light is designed for agile, short-range logistics. According to the company’s specifications, the aircraft features an easily accessible nose-loading payload bay capable of carrying 500 pounds. It boasts a range of 200 nautical miles (NM) with a full payload, or a 2,000 NM ferry range when empty.
The propulsion system consists of 12 eQ250 propulsors integrated directly into the main wing, powered by a 40-kilowatt (kW) hybrid-electric system with a small battery. This configuration allows the CLA Light to dash at speeds of 175 knots and requires only 50 feet of ground roll for takeoff.
The CLA Heavy
For larger logistical needs, Whisper Aero introduced the CLA Heavy. This variant significantly increases capacity, offering a 3,000-pound payload. The company states it can achieve an 800 NM range fully loaded, or a 3,000 NM ferry range.
The Heavy model utilizes a 600 kW powerplant driving 30 wing-integrated eQ250 propulsors. It can reach speeds up to 250 knots and requires a 300-foot ground roll for takeoff. Notably, the press release indicates that the CLA Heavy is designed for flexible operations and can be flown either autonomously or with a pilot on board.
Technological Innovations: JetFoil and UltraQuiet
The core enabler of the CLA fleet’s Short Takeoff and Landing (STOL) capabilities is Whisper Aero’s unique approach to aerodynamics and electric propulsion. The company has developed eQ250 propulsors, electric ducted fans measuring less than a foot in diameter, that generate 80 pounds of thrust each. According to Whisper Aero, these propulsors operate with significantly reduced acoustic and thermal signatures compared to traditional turboprops, enabling stealthier operations in combat zones.
Rather than utilizing tilt-rotors for vertical lift, common in many electric vertical takeoff and landing (eVTOL) designs, Whisper Aero employs its JetFoil™ integration. This method embeds multiple propulsors directly into the leading edge of a fixed wing. The array accelerates airflow over the wing, generating massive amounts of lift at very slow speeds, achieving lift coefficients as high as 14.
“The CLA really opens up the distributed operations portfolio in a way that materially extends the reach and rightsizing capability of cargo operations,” stated Mark Moore, CEO of Whisper Aero, in the release.
When comparing the JetFoil design to competing electric jets, Moore noted that while competitors often rotate their entire propulsion system to redirect thrust, the JetFoil technology “turns only the airflow with a fixed [propulsion system].” He claims this makes the aircraft highly efficient for short takeoffs, requiring about half the thrust of a conventional eVTOL to achieve liftoff.
Development Timeline and Strategic Backing
The U.S. Air-Forces financial backing through STRATFI and OECIF contracts is driving a rigorous testing and development timeline. Whisper Aero is currently testing its propulsion technology on a retrofitted Swift 3 glider, dubbed the “Whisper Ultralight.” This initial phase, spanning 2025 to 2026, is supported by a $500,000 grant from the State of Tennessee and Tennessee Tech University.
According to the company’s projected timeline, acoustic and static testing will be conducted in 2026 with the Air Force Test Center at the White Sands Missile Range in New Mexico. Flight testing for the CLA Light prototype is anticipated to begin in 2027. Looking further ahead, Whisper Aero expects to introduce this technology to commercial and civil air cargo markets between 2030 and 2032.
“There is a significant need to improve logistics, save fuel and sustain air power in new ways,” said Ian Villa, COO and Chief Product Officer at Whisper Aero. “It is logical to develop a 21st-century autonomous cargo logistics vehicle.”
AirPro News analysis
The introduction of the Collaborative Logistics Aircraft highlights a critical pivot within the U.S. Department of Defense. As military planners look toward potential conflicts in the Pacific theater, the vulnerability of massive, centralized supply chains has become a primary concern. By investing in swarms of quiet, autonomous, and runway-independent Drones, the military is actively attempting to mitigate the risks associated with “contested logistics.”
Furthermore, Whisper Aero’s JetFoil concept represents a fascinating divergence from the broader aviation industry’s current obsession with pure eVTOL aircraft. By proving that extreme STOL capabilities can be more energy-efficient and practical than vertical hover, Whisper Aero is challenging established design paradigms. While the immediate application is defense-oriented, the dual-use nature of this technology positions the company to potentially disrupt the commercial middle-mile cargo and regional air mobility markets by the early 2030s.
Frequently Asked Questions
What is the Whisper Aero CLA?
The Collaborative Logistics Aircraft (CLA) is a new family of autonomous, hybrid-electric cargo drones developed by Whisper Aero. Designed primarily for the U.S. military, the aircraft utilize extreme Short Takeoff and Landing (STOL) capabilities to deliver supplies in contested or austere environments.
How does JetFoil technology work?
JetFoil technology embeds multiple small electric ducted fans (propulsors) into the leading edge of a fixed wing. This design accelerates airflow over the wing to generate massive lift at low speeds, allowing the aircraft to take off on very short runways without needing to rotate its propulsion system like a traditional eVTOL.
When will the CLA be operational?
Whisper Aero plans to begin Test-Flights the CLA Light prototype in 2027, following acoustic and static testing in 2026. The company anticipates commercial and civil applications of the technology to roll out between 2030 and 2032.
Sources: Whisper Aero Press Release
Photo Credit: Whisper Aero
Defense & Military
Merlin Completes CDR for C-130J Autonomy Program With USSOCOM
Merlin, Inc. passes Critical Design Review for its AI-powered C-130J autonomy program under a $105M USSOCOM contract.

Merlin, Inc. has successfully completed the Critical Design Review (CDR) for its Lockheed Martin C-130J Super Hercules autonomy program in partnership with the U.S. Special Operations Command (USSOCOM). The milestone, announced on June 4, 2026, transitions the initiative from design development into active aircraft integration and testing.
The review validates the system architecture of the Merlin Pilot, an artificial intelligence-powered autonomy stack designed to reduce crew workload across all phases of flight. According to a press release issued by the Boston-based company, the completion of the review positions the program to enter a structured formal test campaign that will include hardware-in-the-loop simulation, ground testing, and eventual flight demonstrations.
Advancing the C-130J autonomy integration
The transition to the integration phase follows the completion of the preliminary design review in March 2026. The program operates under an indefinite-delivery, indefinite-quantity (IDIQ) contract awarded by USSOCOM. Aviation International News reported that the contract carries a ceiling value of up to $105 million.
While the design phase is now complete, a specific C-130J airframe has not yet been designated for physical integration. A company spokesperson told Aviation International News that current operational demands on the USSOCOM fleet have delayed the allocation of a test aircraft.
“Completing the Critical Design Review validates the architecture we’ve built for safe, scalable autonomy on large aircraft like the C-130J,” said Matt George, CEO and founder of Merlin, Inc. “As we move into integration, ground testing, and eventually flight demonstrations, we’re focused on proving autonomy from takeoff to touchdown is one of the most effective ways to improve operations and safety for US warfighters.”
Broader Department of Defense applications
The USSOCOM partnership represents one component of Merlin’s broader strategy to integrate autonomous flight capabilities into military transport aircraft. The company is concurrently collaborating with the U.S. Air Force Air Mobility Command and the U.S. Air Force Materiel Command on related autonomy initiatives.
In its first-quarter 2026 financial report, Merlin indicated that it anticipates initial customer deliveries under the IDIQ contract within the next year. These deliveries remain contingent on the successful completion of the upcoming integration and testing phases.
AirPro News analysis
The rapid progression from preliminary design review in March 2026 to critical design review in June 2026 highlights the Department of Defense’s accelerated push toward reduced-crew operations for heavy transport aircraft. While the technology is advancing quickly through regulatory and design gates, the lack of an available test airframe underscores a persistent challenge in military acquisition: balancing current operational readiness with future capability testing. We expect that securing a dedicated C-130J for hardware-in-the-loop and flight testing will be the primary pacing item for the program over the next twelve months.
Sources: Merlin, Inc.
Photo Credit: Merlin, Inc.
Defense & Military
Brazil Eyes 20 More Saab Gripen Jets with Local Production
Brazil is considering buying 20 additional Saab Gripen E and F jets, to be produced locally at Embraer’s facility, enhancing defense ties with Sweden.

This article summarizes reporting by Reuters. This article summarizes publicly available elements and public remarks.
Brazil is actively looking to expand its air combat capabilities, expressing official interest in acquiring 20 additional Saab Gripen E and F fighter jets. According to reporting by Reuters, Swedish Defence Minister Pål Jonson confirmed the potential purchase on Thursday, June 4, 2026.
The announcement, made during a joint press conference in Stockholm with Brazilian Defence Minister José Múcio, marks a significant deepening of the defense partnership between the two nations. The two countries signed a declaration of intent to further integrate their aerospace industries and military supply chains.
This development builds upon a decade-long aerospace relationship and highlights a growing trend of reciprocal military trade, following Sweden’s recent decision to procure Brazilian-made transport aircraft.
“Brazil has expressed an interest in potentially buying 20 additional Gripen model E and F fighter jets,” stated Swedish Defence Minister Pål Jonson, according to Reuters.
Deepening the Swedish-Brazilian Defense Pact
Local Manufacturing and R&D
The potential acquisition goes beyond a simple transaction. Based on industry research reports, the new declaration of intent includes provisions for manufacturing the new batch of 20 jets within Brazil. Production is slated to take place at Embraer’s facilities in Gavião Peixoto, São Paulo.
Furthermore, Saab and Brazil have agreed to establish a new research and development center. This facility will be dedicated to creating systems and equipment for the operation, maintenance, and future modernization of the Gripen fleet, cementing Brazil’s role in the aircraft’s long-term lifecycle.
A Reciprocal Trade Strategy
The timing of Brazil’s interest aligns with a broader, symbiotic trade strategy between the two countries. In October 2025, Sweden officially ordered four Embraer C-390 Millennium multi-mission transport aircraft, with options for seven more, to modernize its tactical transport capabilities.
Industry analysts note that Brazil’s follow-up order for Swedish fighters is a continuation of this cross-continental alliance. It showcases a modern blueprint for bilateral defense procurement, moving away from traditional buyer-seller dynamics toward deep industrial integration.
Historical Context and Program Milestones
The Original 2014 Contract
Brazil’s journey with the Gripen platform began in 2014 when it signed a landmark $4.5 billion (approximately SEK 39.3 billion) contract with Saab for 36 aircraft. This original order comprised 28 single-seat E models and 8 two-seat F models. Saab secured the bid over formidable competitors, including the Dassault Rafale and the Boeing F/A-18 Super Hornet.
A critical component of that initial deal was a comprehensive technology transfer program. The agreement mandated that 15 of the original 36 jets be assembled in Brazil, fostering domestic aerospace expertise. While the 2014 procurement faced domestic legal scrutiny regarding corruption allegations, Brazilian President Luiz Inácio Lula da Silva was fully acquitted in 2021 due to a lack of evidence.
Recent Production Achievements
The Gripen program has seen significant milestones in recent months. In March 2026, Brazil unveiled the first Gripen E, locally designated as the F-39E, fully assembled on its own soil.
Shortly after, on June 2, 2026, Saab officially rolled out the first two-seat Gripen F tailored specifically for the Brazilian Air Force at its facility in Linköping, Sweden. The remainder of the original 36 jets are expected to be delivered to the Brazilian Air Force by 2027.
AirPro News analysis
We view this potential follow-on order as a massive endorsement of the Gripen platform’s operational viability and Saab’s technology transfer model. By establishing the Gripen Design and Development Network (GDDN) in São Paulo, Saab has effectively positioned Brazil as a strategic export hub for Latin America.
With neighboring nations such as Colombia and Peru currently evaluating future fighter procurements, a robust Brazilian manufacturing base could heavily influence regional defense acquisitions. The reciprocal nature of the C-390 and Gripen deals also sets a compelling precedent for middle-power nations seeking to bolster domestic industries while modernizing their militaries.
Frequently Asked Questions (FAQ)
- How many Gripen jets is Brazil looking to buy?
Brazil has expressed interest in purchasing 20 additional Gripen E and F fighter jets, which would add to its original 2014 order of 36 aircraft. - Where will the new jets be manufactured?
According to recent declarations of intent, the additional 20 aircraft are slated to be manufactured at Embraer’s facilities in Gavião Peixoto, Brazil. - What is the reciprocal trade aspect of this deal?
In late 2025, Sweden agreed to purchase four Brazilian-made Embraer C-390 Millennium transport aircraft. Brazil’s subsequent interest in more Swedish fighter jets highlights a highly symbiotic defense trade relationship.
Sources: Reuters
Photo Credit: Saab
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