Defense & Military
Dassault and cortAIx Partner to Develop Sovereign AI for Combat Aircraft
Dassault Aviation and cortAIx join forces to create controlled, explainable AI for French combat aircraft, enhancing sovereignty and pilot support.
On November 25, 2025, a significant development in the European defense sector was formalized at the International Adopt AI Summit in Paris. Dassault Aviation, the industrial architect behind the Rafale and the forthcoming Future Combat Air System (FCAS), announced a strategic partnership with cortAIx, the artificial intelligence accelerator of the defense technology giant Thales. This collaboration, originally signed on November 18, 2025, marks a pivotal moment in the race to integrate advanced computing capabilities into military aeronautics while maintaining strict national control over the technology.
The core objective of this partnership is the development of “sovereign, controlled, and supervised” artificial intelligence solutions. As modern warfare increasingly relies on data processing and rapid decision-making, the integration of AI into combat systems has become a necessity rather than a luxury. However, unlike commercial AI applications, military aircraft systems operate in high-stakes environments where error margins are non-existent. We observe that this agreement is designed to address those specific constraints, focusing on technologies that assist pilots and operators without removing the human element from the decision-making loop.
This move also carries substantial weight regarding industrial positioning within Europe. By aligning the capabilities of Dassault Aviation with the specialized AI resources of cortAIx, the partnership reinforces the French industrial base’s ability to deliver the “Combat Cloud”, the network connectivity essential for the Next Generation Fighter (NGF) and associated unmanned systems. It signals a clear intent to secure a technological ecosystem that is independent of non-European infrastructure, ensuring that the strategic autonomy of the French armed forces is preserved in the digital age.
The technological scope of this partnership goes beyond standard software integration. We must understand that the requirements for combat AI differ vastly from the generative models currently dominating the civilian tech sector. The collaboration focuses on “Hybrid AI,” a sophisticated approach that combines data-driven machine learning with symbolic AI. While machine learning excels at pattern recognition, symbolic AI relies on rule-based logic. By merging these two, Dassault and cortAIx aim to create systems that are not only intelligent but also explainable and predictable, critical factors for military certification.
A major technical hurdle in air combat is the limitation of hardware resources. Fighter jets and “Loyal Wingman” drones cannot carry the massive server farms usually required to run complex AI models. Consequently, the partnership places a heavy emphasis on “Frugal AI.” This concept involves designing algorithms specifically optimized for embedded systems where size, weight, and power consumption (SWaP) are strictly constrained. The goal is to deliver high-performance computing directly on the aircraft, reducing reliance on ground stations and ensuring functionality even in electronic warfare environments where communications might be jammed.
These technologies are intended to serve a wide array of mission functions. From real-time situation analysis and sensor fusion to flight control assistance and mission planning, the AI is designed to act as a virtual co-pilot. For the Future Combat Air System, this means the software must manage the interplay between manned fighters and remote carriers (drones), synthesizing vast amounts of data from radar and optronics into a coherent tactical picture for the human pilot.
Furthermore, the development of these systems is being conducted under a “sovereign tech stack.” This ensures that the entire chain of technology, from the sensors developed by Thales to the algorithmic architecture, remains free from foreign interference. By utilizing sovereign processors and European-controlled cloud infrastructures, the partners aim to mitigate the risks associated with relying on hardware or software subject to extraterritorial regulations, such as those from the United States or China.
“In a multipolar AI world, sovereignty is not about choosing sides, it’s about choosing a strategy. France’s strategy is to build a domestic champion ecosystem to ensure it remains an architect of its own defense, not just a client.”
One of the most critical aspects of this announcement is the explicit commitment to “controlled and supervised” AI. This terminology is not merely technical but deeply doctrinal. It aligns with the French Ministry of Armed Forces’ stance on Lethal Autonomous Weapons Systems (LAWS). The doctrine dictates that while AI can process data and suggest courses of action, the final decision regarding the use of force must remain with a human operator. This partnership aims to provide the technical means to enforce this ethical boundary. To achieve this, the systems will be developed in compliance with the European Union’s AI Act. The focus on “Hybrid AI” plays a vital role here as well; because symbolic AI follows logical rules, it allows for greater transparency in how the system reaches a conclusion. This “explainability” is essential for maintaining trust between the pilot and the machine. If an AI system suggests a maneuver or identifies a target, the pilot must be able to trust that the suggestion is based on verified data and valid tactical logic, rather than an algorithmic hallucination.
We see this approach as a direct response to the growing concerns surrounding the “black box” nature of deep learning. By prioritizing supervision and control, Dassault and cortAIx are attempting to future-proof their systems against both operational failures and ethical controversies. This ensures that the advancements in the Rafale and the future NGF adhere to international humanitarian law and domestic defense policies.
The collaboration between Dassault Aviation and cortAIx is a strategic consolidation of French defense capabilities. Dassault Aviation serves as the industrial architect, responsible for the overall integration of the “system of systems.” Their role is to ensure that the AI components function seamlessly within the complex avionics of next-generation aircraft. cortAIx, acting as the technology provider, brings the specialized research capabilities of its lab in Saclay and the industrialization power of its “factory” division.
This partnership also strengthens Dassault’s position in the broader context of the FCAS program, a tri-national effort involving France, Germany, and Spain. By securing a sovereign supply chain for the critical “Combat Cloud” and AI components, Dassault demonstrates its capacity to lead the technological core of the project. It mitigates the risk of technological dependency on external partners for the most sensitive aspects of the aircraft’s operation.
The strategic partnership between Dassault Aviation and cortAIx represents a calculated step toward securing the future of European air superiority. By focusing on sovereign, frugal, and hybrid AI, the collaboration addresses the unique technical and ethical challenges of modern aerial warfare. It moves beyond the hype of general-purpose AI to deliver specialized, robust solutions capable of operating in the most demanding environments.
As we look toward the operational deployment of the Future Combat Air System, the success of this partnership will likely serve as a benchmark for how defense industries balance the need for autonomous capabilities with the imperative of human control. The initiative underscores a broader trend where digital sovereignty is becoming as critical to national defense as kinetic firepower.
What is the main goal of the Dassault and cortAIx partnership? What is “Hybrid AI” in this context? Will this AI replace human pilots?
Strategic Alliance for Sovereign Air Defense
Defining the Next Generation of Combat AI
The Concept of Frugal and Embedded Intelligence
Ethical Compliance and the “Man-in-the-Loop”
Strategic Implications for the Industry
Conclusion
FAQ
The primary goal is to develop sovereign, controlled, and supervised artificial intelligence technologies for military aeronautics, specifically for the Rafale and the Future Combat Air System (FCAS).
Hybrid AI combines data-driven machine learning with rule-based symbolic AI. This approach ensures that the AI’s decisions are explainable, predictable, and reliable, which is essential for military certification and safety.
No. The partnership emphasizes “Man-in-the-loop” doctrine. The AI is designed to assist the pilot by analyzing situations and reducing cognitive load, but the human operator retains control over critical decisions, particularly the use of force.
Sources
Photo Credit: Dassault Aviation
Defense & Military
Sweden Invests $440M in Unmanned Military Drone Systems by 2028
Sweden allocates $440 million for unmanned drones, accelerating deliveries to 2026-2028, plus funding for counter-drone defenses and military satellites.
This article summarizes reporting by Reuters. The original report may be paywalled; this article summarizes publicly available elements and public remarks.
On January 12, 2026, the Swedish government announced a significant acceleration in its defense capabilities, committing SEK 4 billion (approximately $440 million) specifically for the procurement of unmanned drone systems. As reported by Reuters, this investment marks a pivotal shift in Sweden’s military strategy following its accession to NATO and the ongoing lessons learned from the war in Ukraine.
Swedish Defence Minister PÃ¥l Jonson unveiled the package, emphasizing that the acquisition focuses on “mass and speed.” The initiative is designed to rapidly equip the Swedish Armed Forces with long-range attack drones, loitering munitions, and surveillance capabilities. According to government statements, deliveries are scheduled to take place between 2026 and 2028, a timeline that officials note has been compressed by nearly eight years compared to traditional procurement cycles.
This move represents one of the most direct applications of “lessons learned” from modern high-intensity conflicts, where the ubiquity of sensors and the necessity of expendable mass have redefined combat operations.
While the headline figure focuses on the $440 million for drones, additional reporting and government releases clarify that this is part of a triad of simultaneous investments. It is critical to distinguish the specific funding streams to understand the scope of the modernization effort.
According to details released by the Swedish Ministry of Defence, the funding is allocated as follows:
The separation of these funds highlights a dual approach: Sweden is simultaneously building the capacity to launch drone attacks while fortifying its defenses against similar threats.
The procurement strategy appears to favor a mix of proven international systems and emerging domestic technology. Based on recent testing by the Swedish Defence Materiel Administration (FMV) and industry reports, several specific systems are likely candidates for these funds.
Sweden is actively seeking “loitering munitions”, systems that can hover over a target area before striking. Industry observers note that the FMV has conducted tests with the Israeli-made UVision “Hero” series. These systems provide soldiers with the ability to strike beyond the line of sight with high precision. Given Sweden’s strategic responsibility for the Baltic Sea, naval drones are a priority. Saab has been developing the Enforcer III, an unmanned surface vessel based on the Combat Boat 90 platform. Additionally, underwater systems like the Saab AUV62-MR are being deployed for mine reconnaissance and seabed mapping, a critical mission for protecting undersea cables and pipelines.
Funded by the separate SEK 3.5 billion package, Sweden has confirmed orders for the Saab Trackfire ARES. This system features a remote weapon station equipped with a 30mm chain gun and proximity-fuzed ammunition, designed to physically destroy incoming drones.
The driving force behind this investment is the concept of the “transparent battlefield,” where concealment is nearly impossible due to constant aerial surveillance. Defence Minister PÃ¥l Jonson was blunt in his assessment of the changing security landscape.
“The future battlefield will be characterized by unmanned systems and long-range capacity. Anyone who doesn’t understand that is going to be either dead or defeated.”
, PÃ¥l Jonson, Swedish Defence Minister (via Government.se)
As a new NATO member, Sweden is integrating its assets into the alliance’s northern flank. These unmanned systems will likely be used to monitor Russian naval activity in the Baltic Sea and provide early warning data to NATO command structures.
While the investment is substantial, some experts argue it may still be insufficient. Oscar Jonsson, a researcher at the Swedish Defence University, told reporters that while the strategic direction is correct, the volume of acquisition might not meet the demands of a full-scale conflict.
“We are doing pretty much what we always do. Buying expensive platforms in small numbers… [we need] mass.”
, Oscar Jonsson, Swedish Defence University
The Shift from Platforms to Payloads This investment signals a profound doctrinal shift for Sweden. Historically, the Swedish military has relied on a small number of extremely high-tech, high-cost platforms, such as the Gripen fighter jet and the Visby-class corvette. The decision to spend nearly half a billion dollars on unmanned systems, many of which are designed to be expended (destroyed) upon use, acknowledges the “cost exchange dilemma.”
In modern warfare, using a multi-million dollar missile to shoot down a $20,000 drone is economically unsustainable. By investing in low-cost interceptors like the domestic Kreuger 100 and mass-produced loitering munitions, Sweden is attempting to align its cost curve with the realities of attrition warfare. We assess that this is likely just the first tranche of such funding, as NATO pressure mounts for member states to stockpile “consumable” munitions rather than just “prestige” platforms.
When will the new drone systems be operational? Is this funding part of the NATO defense spending requirement? What is the difference between the drone and counter-drone packages?
Sweden Commits $440 Million to Unmanned Military Systems in Major Defense Overhaul
Breakdown of the Investment Packages
Targeted Capabilities and Hardware
Loitering Munitions
Marine and Underwater Drones
Counter-UAS Solutions
Strategic Context: The “Transparent Battlefield”
Expert Reactions
AirPro News Analysis
Frequently Asked Questions
Deliveries are scheduled to occur between 2026 and 2028. The government claims this timeline has been accelerated by up to eight years compared to standard procedures.
Yes. These investments contribute to Sweden meeting and exceeding the NATO target of spending 2% of GDP on defense.
The SEK 4 billion drone package is for offensive and surveillance systems (attacking and seeing). The SEK 3.5 billion counter-drone package is for defensive systems (shooting down enemy drones).
Sources
Photo Credit: REUTERS – Tom Little
Defense & Military
Indonesia and Pakistan Nearing Deal for JF-17 Jets and Drones
Indonesia and Pakistan are finalizing a defense deal for JF-17 Block III jets and armed drones to enhance Indonesia’s air capabilities.
This article summarizes reporting by Reuters.
Indonesia and Pakistan are reportedly in the final stages of negotiating a significant defense package that would see the Southeast Asian nation acquire JF-17 Thunder fighter jets and armed unmanned aerial vehicles (UAVs). According to reporting by Reuters on January 12, 2026, the two nations are “closing in” on the agreement following high-level meetings in Islamabad.
The potential deal highlights Pakistan’s growing footprint in the global arms export market and Indonesia’s strategy to diversify its military hardware. The discussions took center stage during a meeting between Indonesian Defense Minister Sjafrie Sjamsoeddin and Pakistan’s Air Chief Marshal Zaheer Ahmed Baber Sidhu. While a final contract has not yet been signed, sources indicate the talks have reached an advanced stage.
According to the reports, the procurement package focuses on bolstering Indonesia’s air combat and surveillance capabilities. The deal is expected to include the JF-17 Thunder Block III, a multi-role fighter jet jointly developed by Pakistan and China, as well as armed drones.
Industry reports suggest the agreement could involve approximately 40 units of the JF-17 Thunder Block III. This variant is the most advanced iteration of the platform, featuring 4.5-generation capabilities. Additionally, the package reportedly includes the Shahpar series of armed drones, likely the Shahpar-2 or the newer Shahpar-3, which are designed for both surveillance and strike missions.
As noted in the Reuters report, the Indonesian delegation also held talks with Pakistan’s Army Chief, Field Marshal Asim Munir, signaling the broad scope of the defense cooperation. The deal is estimated by defense analysts to be valued in the multi-billion dollar range, potentially between $3 billion and $4 billion, though official figures remain undisclosed.
The equipment under negotiation offers Indonesia significant capability upgrades at a competitive price point compared to Western alternatives.
JF-17 Thunder Block III: This aircraft is equipped with an Active Electronically Scanned Array (AESA) radar and is compatible with long-range air-to-air missiles, such as the PL-15. These features provide “Beyond Visual Range” (BVR) capabilities comparable to more expensive Western jets. Shahpar UAVs: The Shahpar-2 and Shahpar-3 drones offer Medium Altitude Long Endurance (MALE) performance. Specifications cited in defense reports indicate these platforms can carry laser-guided missiles and possess endurance ranging from 14 to over 30 hours, depending on the variant and payload.
The “High-Low” Mix Strategy
From an operational standpoint, Indonesia’s interest in the JF-17 aligns with a classic “high-low” fleet mix strategy. Jakarta has recently invested in high-end, expensive platforms like the French Rafale and is in talks for the American F-15EX. While these jets offer superior kinematics and payload, they are costly to procure and operate in large numbers.
The JF-17 Block III offers a pragmatic solution: it delivers near-peer electronic warfare and BVR capabilities at a fraction of the cost. This allows the Indonesian Air Force (TNI-AU) to build the necessary squadron mass to cover its vast archipelago without exhausting its defense budget on a purely Western fleet. Furthermore, acquiring hardware from Pakistan reduces Indonesia’s vulnerability to potential Western sanctions or end-user restrictions, ensuring operational sovereignty.
If finalized, this deal would mark another major milestone for Pakistan’s defense industry, which has been aggressively pursuing export opportunities to bolster the national economy.
According to industry data, Pakistan has recently secured export contracts with nations such as Azerbaijan, Nigeria, and Iraq. The sale of JF-17s to Azerbaijan, valued at over $1.6 billion, previously set a record for the country’s defense exports. A successful deal with Indonesia, the world’s most populous Muslim nation and a major G20 economy, would significantly validate the JF-17 program on the global stage.
The diplomatic foundation for this deal appears to have been strengthened by recent high-level exchanges, including a visit by Indonesian President Prabowo Subianto to Pakistan in late 2025.
What is the JF-17 Thunder? Has the deal been signed? Why is Indonesia buying Pakistani jets?
Indonesia and Pakistan Nearing Major Defense Pact for JF-17 Jets and Drones
Details of the Proposed Defense Package
Fighter Jets and Drones
Technical Capabilities and Strategic Fit
AirPro News analysis
Pakistan’s Growing Export Ambitions
Frequently Asked Questions
The JF-17 Thunder is a lightweight, single-engine, multi-role combat aircraft developed jointly by the Pakistan Aeronautical Complex (PAC) and China’s Chengdu Aircraft Corporation (CAC). The Block III variant features advanced avionics and radar systems.
No. According to Reuters, the two sides are “closing in” on the deal, and negotiations are in an advanced stage, but a final contract has not yet been officially inked.
Indonesia pursues a “mixed fleet” policy to avoid over-reliance on any single supplier. The JF-17 offers a cost-effective way to increase fleet size and capabilities while diversifying supply chains away from exclusive dependence on Western or Russian technology.
Sources
Photo Credit: Pakistan Air Force
Defense & Military
First T-7A Red Hawk Trainer Officially Joins US Air Force Service
The US Air Force inducted the first T-7A Red Hawk advanced trainer, marking a shift to modern pilot training for next-gen fighters.
The U.S. Air Force has officially welcomed its first operational T-7A Red Hawk advanced trainer, marking a pivotal moment in military aviation history. In a ceremony held on January 9, 2026, at Joint Base San Antonio-Randolph in Texas, the aircraft was formally inducted into the 99th Flying Training Squadron, known as the “Red Tails.”
According to an official press release from Boeing, this event signifies the beginning of a long-awaited transition from the 1960s-era T-38 Talon to a modern, digitally designed training system. The T-7A is specifically engineered to prepare pilots for fifth- and sixth-generation fighters, such as the F-35 Lightning II, F-22 Raptor, and the B-21 Raider.
The induction ceremony was attended by key military leadership, including Lt. Gen. Scott Pleus, Acting Vice Chief of Staff of the Air Force, and Lt. Gen. Clark Quinn, Commander of the Air Education and Training Command (AETC). The arrival of the aircraft represents a critical “proof of life” milestone for a program that aims to revolutionize how American combat pilots are trained.
The T-7A Red Hawk is not merely an aircraft update; it represents a comprehensive overhaul of the pilot training curriculum. While the T-38 Talon has served faithfully for over six decades, its analog systems are increasingly disconnected from the digital realities of modern combat.
Data provided by USAF reports indicates that the T-7A is powered by a single General Electric F404-GE-103 afterburning turbofan engine, generating approximately 17,200 pounds of thrust. The aircraft is capable of supersonic speeds (Mach 1+) and operating at ceilings above 50,000 feet. Crucially, its airframe allows for high angle-of-attack (AoA) maneuvers, mimicking the flight characteristics of modern frontline fighters.
Boeing highlights several design improvements over the legacy T-38:
The T-7A holds the distinction of being the first USAF aircraft to receive the “e-Series” designation. According to Boeing, the system was designed and tested using digital twins and model-based systems engineering (MBSE) before physical manufacturing began.
This digital-first approach yielded significant industrial benefits. Company data suggests that digital engineering reduced assembly hours by 80% and cut software development time by 50%. This methodology allowed the aircraft to progress from concept to first flight in just 36 months, a pace intended to set a new standard for defense acquisition.
The T-7A program is the result of a trans-Atlantic partnership between Boeing and the Swedish aerospace company Saab. Under a contract awarded in September 2018, valued at $9.2 billion, the team is tasked with delivering 351 aircraft, 46 simulators, and associated ground equipment. Manufacturing responsibilities are split to leverage the strengths of both companies:
The “Red Hawk” name and the aircraft’s distinctive livery are a deliberate tribute to the Tuskegee Airmen, the first African American military aviators in the U.S. Armed Forces. The red tail surfaces honor the “Red Tails” of the 332nd Fighter Group, while the name “Hawk” pays homage to the P-40 Warhawk flown by the 99th Fighter Squadron.
During the aircraft’s naming ceremony in 2019, then-Acting Secretary of the Air Force Matthew Donovan emphasized the connection between the aircraft’s capabilities and its historical namesake:
“The name Red Hawk honors the legacy of Tuskegee Airmen and pays homage to their signature red-tailed aircraft from World War II… The distance between the T-38 and an F-35 is night and day. But with the T-7A the distance is much, much smaller.”
The January 2026 induction ceremony included descendants of the Tuskegee Airmen, reinforcing the bridge between the heritage of the “Greatest Generation” and the future of a diverse U.S. Air Force.
The induction of the first operational T-7A is a significant victory for a program that has faced its share of hurdles. While the digital engineering approach promised speed, the program encountered delays related to the escape system and software stability, pushing the full-rate production decision to 2026 and Initial Operational Capability (IOC) toward the 2027–2028 timeframe.
However, the arrival of the physical hardware at JBSA-Randolph suggests that Boeing and the USAF have turned a corner. For the Air Force, the stakes are high: the pilot shortage remains a critical issue, and training students on 60-year-old analog jets for 5th-generation combat is increasingly inefficient. The T-7A’s ability to simulate complex data links and virtual threats in flight is not just an upgrade, it is a necessity for maintaining air superiority in the coming decades.
Sources: Boeing, USAF reports
First T-7A Red Hawk Officially Inducted into U.S. Air Force Service
A Generational Leap in Pilot Training
Technical Specifications and Capabilities
Digital Engineering and the “e-Series”
Industrial Partnership and Manufacturing
Honoring the Tuskegee Airmen
AirPro News Analysis
Photo Credit: Boeing
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