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France Enhances Space Surveillance with Thales AURORE Radar

Thales develops AURORE radar for France, improving Low Earth Orbit surveillance and replacing the GRAVES system to track smaller satellites and debris.

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The New Guardian of the Skies: Thales’s AURORE Radar

Low Earth Orbit (LEO), the region of space up to 2,000 kilometers in altitude, is becoming increasingly congested. The proliferation of satellites, from large constellations to tiny CubeSats, combined with a growing cloud of space debris, presents a significant challenge to the safety and security of space operations. This complex environment demands advanced surveillance capabilities to track objects, predict collisions, and maintain a clear picture of activities overhead. In response to this evolving landscape, the need for sovereign space situational awareness has never been more critical for nations that rely on space-based assets for communication, navigation, and national security.

Recognizing this imperative, France has taken a significant step to bolster its space surveillance capabilities and, by extension, those of Europe. The French Defence Procurement Agency (DGA) has awarded Thales Group a contract to develop the AURORE (Action and Space Resilience) Radar-Systems. This system is not merely an upgrade; it represents a generational leap in technology designed to provide an unprecedented level of detection and tracking in LEO. As the successor to the long-serving GRAVES system, AURORE is poised to become a cornerstone of France’s Strategy for space sovereignty and a key asset for European space security.

A Strategic Response to an Evolving Domain

The development of the AURORE radar is a direct answer to the growing complexities and threats within the space domain. For nearly two decades, France has relied on the GRAVES (Grand Réseau Adapté à la Veille Spatiale) system, a bistatic VHF radar that has been instrumental in monitoring LEO since 2005. While a capable system for its time, the rapid evolution of space technology, particularly the miniaturization of satellites, has exposed its limitations. The increasing number of smaller objects, such as nanosatellites and CubeSats, along with fragments from past collisions, are more difficult for older systems to detect, yet they pose a serious threat to operational satellites.

From GRAVES to AURORE: A Necessary Evolution

The decision to replace the GRAVES system stems from the need to see smaller objects with greater precision. The space environment is no longer defined solely by large, easily trackable satellites. The current reality is a dynamic and cluttered field where a small, untracked piece of debris can cause catastrophic damage. The AURORE system is designed specifically to address this gap, providing the high-resolution picture required for modern space traffic management and defense.

This technological step-up is a central part of the French ARES (Action and Space Resilience) program, a broader initiative aimed at modernizing and expanding the nation’s space surveillance network. By investing in AURORE, France is ensuring it has the sovereign capability to monitor activities in LEO, assess threats independently, and protect its vital space infrastructure without relying on data from other nations. This move enhances national security and reinforces its position as a leading space power in Europe.

As noted by General Jérôme Bellanger, Chief of Staff of the Air and Space Force, the successor to the GRAVES system will “allow us to see certain things that our European partners do not see,” highlighting the unique and advanced capability AURORE will bring.

Technical Leap and Strategic Advantage

AURORE is engineered with future-proof technology at its core. It is a Software-defined radar operating in the Ultra High Frequency (UHF) band, which offers more precise tracking and imaging compared to the VHF band used by its predecessor. This design provides immense flexibility, allowing the system to be updated and adapted to counter new and evolving threats through software modifications rather than costly hardware overhauls.

The system’s key capabilities include continuous, uninterrupted surveillance of LEO and the ability to simultaneously track numerous space objects. This provides a real-time, detailed picture of the space environment, enabling rapid response times for tracking and identifying objects of interest. The radar’s modular architecture is another significant feature, serving as a foundation for a new family of UHF radars that can be adapted for other critical missions, including the detection of ballistic and hypersonic missiles.

The development and Manufacturing of the AURORE radar will take place at Thales’ Limours site in France, with significant contributions from a network of French Small and Medium-sized Enterprises (SMEs). This not only ensures a domestic industrial base for this critical technology but also fosters innovation and expertise within the French defense sector.

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Conclusion: Securing the Future in Space

The unveiling of the AURORE radar marks a pivotal moment for French and European space security. It is a clear demonstration of a commitment to maintaining sovereignty in an increasingly contested domain. By providing a highly precise and independent assessment of the space situation, AURORE will enhance military space surveillance missions, protect national assets, and contribute to the Safety of all space operations. It is a strategic tool that addresses the immediate challenges of a congested LEO while being built for the threats of tomorrow.

Looking ahead, the technology underpinning AURORE opens up new possibilities. Its modular and software-defined nature makes it a versatile platform that can be evolved for a range of defense applications. As Patrice Caine, Chairman and CEO of Thales, stated, “With AURORE, the only radar of its kind in Europe, Thales is contributing to French sovereignty.” This program is not just about a single radar; it’s about building a foundation for a new generation of surveillance systems that will be crucial for navigating the complexities of the 21st-century security landscape.

FAQ

Question: What is the Thales AURORE radar?
Answer: AURORE is a new-generation, ground-based space surveillance radar designed by Thales to monitor and track satellites and space debris in Low Earth Orbit (LEO) up to an altitude of 2,000 km.

Question: Why is the AURORE radar necessary?
Answer: It is being developed to replace France’s aging GRAVES radar system and to address the growing threats in LEO, including the proliferation of small satellites and space debris that older systems cannot effectively track.

Question: What makes AURORE technologically advanced?
Answer: AURORE is a software-defined radar operating in the UHF band, which allows for more precise tracking. Its modular architecture is designed to be adaptable for future threats, including potential use in detecting ballistic and hypersonic missiles.

Question: What is the strategic importance of AURORE?
Answer: It provides France with a sovereign capability to monitor the space environment, reducing reliance on other nations’ data. It is described as a unique system in Europe that will significantly enhance space situational awareness and security.

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Photo Credit: Thales

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US Marine Corps 2026 Aviation Plan Updates F-35 Fleet Structure

The 2026 Marine Corps Aviation Plan shifts F-35 procurement to favor F-35C carrier jets, integrates AI, and enhances safety initiatives.

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This article is based on an official press release from the U.S. Marine Corps.

Marine Corps Unveils 2026 Aviation Plan: Major F-35 Fleet Restructuring and Safety Overhaul

The U.S. Marine Corps has officially released its 2026 Marine Corps Aviation Plan (AVPLAN), marking a significant transition from strategic theory to concrete implementation. Released by Deputy Commandant for Aviation Lt. Gen. William H. Swan, the document outlines the service’s aviation roadmap through 2040, prioritizing integration with the Joint Force and a “data-driven” approach to modernization.

According to the official release, the 2026 AVPLAN signals the entry into “Phase 3: Execution” of Project Eagle, the Corps’ long-term aviation Strategy. While the total procurement number for the F-35 Lightning II remains steady, the plan reveals a major pivot in the mix of variants, favoring carrier-based capabilities over short-takeoff/vertical-landing (STOVL) platforms to better align with U.S. Navy carrier strike groups.

In a statement regarding the plan’s release, Lt. Gen. Swan emphasized the shift in focus:

“The 2026 AVPLAN moves away from broad directives and toward concrete, data-driven implementation.”

, Lt. Gen. William H. Swan, Deputy Commandant for Aviation

Strategic Pivot: F-35 Procurement Changes

The most notable operational change detailed in the 2026 AVPLAN is the restructuring of the tactical fighter fleet. While the Marine Corps maintains its total procurement objective of 420 aircraft, the specific composition of the fleet is changing significantly to support distributed maritime operations.

According to the plan, the service is reducing its procurement of the F-35B (the STOVL variant capable of operating from amphibious assault ships) from 353 to 280 aircraft. Conversely, the Corps is more than doubling its acquisition of the F-35C (the carrier variant), increasing the target from 67 to 140 aircraft.

This adjustment will result in a force structure of:

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  • 12 F-35B Squadrons (down from previous estimates)
  • 8 F-35C Squadrons (up from 4)

This shift suggests a deeper commitment to integrating Marine aviation assets directly into Navy Carrier Air Wings, leveraging the F-35C’s extended range and payload capacity compared to the F-35B.

AirPro News Analysis

The decision to swap 73 F-35Bs for F-35Cs represents a tacit acknowledgement of the changing Pacific threat landscape. While the F-35B offers unique flexibility for island-hopping campaigns and operations from L-class amphibious ships, the F-35C brings greater fuel capacity and a more robust landing gear structure suitable for high-tempo carrier operations. By increasing the F-35C buy, the Marine Corps is effectively tying its fixed-wing future more closely to “big deck” Navy carriers, ensuring relevance in long-range conflicts where the shorter combat radius of the F-35B might be a limiting factor.

Modernization and Distributed Operations

Beyond fleet numbers, the AVPLAN formalizes Distributed Aviation Operations (DAO) as the service’s central warfighting concept. This doctrine relies on dispersing aircraft across small, austere expeditionary sites to complicate enemy targeting cycles. To support this, Aviation Ground Support (AGS) has been formally designated as the “7th Function of Marine Aviation,” highlighting its critical role in sustaining dispersed forces.

The plan also details the integration of unmanned systems and AI:

  • MQ-9A Reaper: Continued expansion for long-range surveillance.
  • Collaborative Combat Aircraft (CCA): Integration of the MQ-58B to serve as “loyal wingmen” for manned fighters.
  • Decision-Centric Aviation Operations (DCAO): Utilizing AI and machine learning to accelerate tactical decision-making and predictive maintenance.

Col. Derek Brannon, Cunningham Group Branch Head, noted the importance of this technological integration in the official release:

“Project Eagle prepares us to embrace technological innovation while ensuring we can deliver combat power across all domains.”

, Col. Derek Brannon

“26 in 26”: A New Safety North Star

Addressing a series of aviation mishaps across the military in recent years, the 2026 AVPLAN introduces a specific Safety initiative titled “Safety North Star: 26 in 26.”

The initiative aims to drastically reduce Class A-D mishaps during the calendar year 2026. The plan cites internal data indicating that 78.8% of historical mishaps involved human factors, with nearly 30% of major mishaps linked to procedural non-compliance. The “26 in 26” program focuses on a “back-to-basics” approach, enforcing strict discipline and adherence to established procedures to mitigate human error.

Frequently Asked Questions

Does the new plan reduce the total number of F-35s the Marines will buy?
No. The total procurement objective remains fixed at 420 Military-Aircraft. The change is only in the mix of variants (fewer F-35Bs, more F-35Cs).
What is the difference between the F-35B and F-35C?
The F-35B is a Short Take-off/Vertical Landing (STOVL) jet designed for amphibious ships and short runways. The F-35C is the Carrier Variant, featuring larger wings, folding wingtips, and stronger landing gear for catapult launches and arrested landings on Navy aircraft carriers. The F-35C generally has greater range and payload capacity.
What is Project Eagle?
Project Eagle is the Marine Corps’ overarching aviation strategy. The 2026 AVPLAN marks the beginning of “Phase 3,” which focuses on the execution and delivery of the modernization goals set in previous years.

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Photo Credit: U.S. Marine Corps

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Boeing to Modernize C-17A Fleet with MOSA Upgrades Through 2075

Boeing secures contract to upgrade C-17A avionics with Modular Open Systems Architecture, extending fleet service through 2075 with Curtiss-Wright as key subcontractor.

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This article is based on official press releases from The Boeing Company and Curtiss-Wright Corporation.

Boeing Secures Contract to Modernize C-17A Fleet Through 2075

The Boeing Company announced on February 9, 2026, that it has received a significant contract award from the U.S. Air Force to overhaul the flight deck of the C-17A Globemaster III. The “Flight Deck Obsolescence and Technology Refresh” program aims to transition the strategic airlifter’s avionics to a Modular Open Systems Architecture (MOSA), ensuring the fleet remains mission-ready through 2075.

This modernization effort addresses critical component obsolescence while introducing a digital backbone capable of rapid future upgrades. By moving away from hard-wired legacy systems, the U.S. Air-Forces intends to keep the C-17 relevant in an era of contested logistics and evolving digital warfare.

The Shift to Open Architecture

According to the announcement, the core of this upgrade is the implementation of MOSA. This architecture functions similarly to a modern smartphone operating system, allowing engineers to swap out hardware or install new software applications without redesigning the entire cockpit. This “plug-and-play” capability is essential for integrating future communication links and defensive systems required for Joint All-Domain Command and Control (JADC2) operations.

The upgrade will replace legacy Multi-Function Displays (MFD) and Standby Engine Displays (SED) with high-definition “glass cockpit” screens. It also includes upgrades to the Core Integrated Processor (CIP) and Video Integrated Processor (VIP), significantly reducing crew workload and improving situational awareness.

Travis Williams, Vice President of Boeing USAF Mobility & Training Services, emphasized the long-term value of this refresh in the company’s press statement:

“By resolving avionics obsolescence and introducing MOSA, we’re preserving a proven, highly dependable, heavy airlifter and keeping it at the forefront of performance and efficiency for decades to come.”

Key Partners and Financials

While the February 9 announcement highlights the broader modernization framework, specific financial details reveal the scale of the commitment. A related contract for “Flight Deck Replacement” awarded to Boeing in late 2025 was valued at approximately $265 million, covering the Engineering, Manufacturing, and Development (EMD) phase.

Curtiss-Wright’s Contribution

Simultaneously, Curtiss-Wright Corporation announced it had secured a contract with a lifetime value exceeding $400 million to supply the ruggedized mission computers for the program. As a major subcontractor, Curtiss-Wright will provide the high-performance computing modules that serve as the brain of the new open architecture system.

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Lynn M. Bamford, Chair and CEO of Curtiss-Wright, stated regarding the partnership:

“By delivering rugged, modular mission computing technology, we are supporting the long-term readiness of the C-17, a platform essential to global logistics and mobility operations.”

AirPro News Analysis

The decision to extend the C-17’s service life to 2075, nearly 85 years after its first flight, highlights a critical reality in modern military aviation: airframes often outlast their electronics. The C-17 is structurally sound, but its 1990s-era avionics are becoming impossible to source.

We observe that the move to MOSA is not just about maintenance; it is a strategic pivot. By decoupling software from hardware, the USAF can update the C-17’s cyber defenses and communication nodes at the speed of software development, rather than the multi-year pace of hardware acquisition. This flexibility is vital as the C-17 transitions from a permissive-environment cargo hauler to a data node in a high-threat, connected battlespace.

Global Fleet Impact

The modernization program targets the entire fleet of 275 aircraft. This includes 222 aircraft operated by the U.S. Air Force and 53 aircraft flown by international partners, including the United Kingdom, Australia, Canada, India, Kuwait, Qatar, the UAE, and the NATO Strategic Airlift Capability.

In addition to the avionics refresh, the fleet is undergoing efficiency improvements. Recent reports indicate the adoption of “Microvanes,” 3D-printed structures attached to the fuselage that reduce drag by approximately 1%. While seemingly small, this adjustment saves millions of gallons of fuel annually, extending the aircraft’s range for operations in the Pacific theater.

Frequently Asked Questions

What is the timeline for the C-17 modernization?
The program is designed to keep the C-17 operational through 2075. The current phase involves Engineering, Manufacturing, and Development (EMD), with fleet-wide installation to follow.

What is MOSA?
Modular Open Systems Architecture (MOSA) is a design standard that allows different components from different suppliers to work together seamlessly. It enables rapid upgrades and prevents “vendor lock-in” for future technology insertions.

Who are the primary contractors?
The Boeing Company is the prime contractor. Curtiss-Wright Corporation is a key subcontractor responsible for the mission computers.

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Photo Credit: Boeing

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South Korea Grounds AH-1S Cobra Helicopters After Fatal Crash

South Korea suspends AH-1S Cobra helicopter operations following a fatal training crash amid delays in fleet replacement.

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This article summarizes reporting by South China Morning Post and official statements from the South Korean military.

South Korea Grounds AH-1S Cobra Fleet Following Fatal Training Crash

The South Korean military has ordered an immediate suspension of all AH-1S Cobra helicopters operations following a fatal accident on Monday morning. According to reporting by the South China Morning Post (SCMP), the crash occurred in Gapyeong and resulted in the deaths of two crew members. The grounding order remains in effect pending a comprehensive investigation into the cause of the incident.

The tragedy has renewed scrutiny over the Republic of Korea Army’s aging fleet of attack helicopters, many of which have surpassed their original intended service life. Military officials confirmed that the aircraft involved was conducting training maneuvers at the time of the accident.

Incident Details and Casualties

The crash took place at approximately 11:04 AM KST on February 9, 2026. The aircraft, an AH-1S Cobra operated by the Army’s 15th Aviation Group, went down on a riverbank in Gapyeong County, located roughly 55 kilometers northeast of Seoul.

According to military briefings, the two crew members on board, both Warrant Officers, were recovered from the wreckage in cardiac arrest. They were transported to a nearby hospital but were subsequently pronounced dead.

Preliminary reports indicate the crew was engaged in “emergency landing procedures.” In rotorcraft aviation, this typically refers to autorotation training, a high-risk maneuver where pilots simulate engine failure to glide the helicopter safely to the ground using the energy stored in the spinning rotors. While standard for pilot certification, autorotation requires precise handling, particularly during the final “flare” phase near the ground.

Fleet Status and Delayed Retirement

The AH-1S Cobra has been a staple of South Korea’s anti-tank capabilities since its introduction between 1988 and 1991. However, the fleet is widely considered obsolete by modern standards. Estimates suggest the Army still operates between 55 and 70 of these airframes.

According to defense procurement plans previously released by the government, the AH-1S fleet was scheduled for retirement by 2024. The continued operation of these helicopters in 2026 points to significant delays in the full deployment of replacement platforms, specifically the AH-64E Apache Guardian and the domestically produced KAI LAH (Light Armed Helicopter).

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Previous Safety Concerns

This is not the first time the aging Cobra fleet has faced safety questions. In August 2018, the fleet was grounded after a catastrophic mechanical failure in Yongin. During that incident, a main rotor blade separated from the fuselage during takeoff, leading to a crash landing. That failure was later attributed to a defect in the rotor strap assembly, highlighting the structural fatigue inherent in airframes that have been in service for nearly four decades.

AirPro News Analysis

The Risks of Legacy Training
The crash in Gapyeong underscores a critical dilemma facing modernizing militaries: the necessity of training on “high-risk” airframes while awaiting delayed replacements. Autorotation training is inherently dangerous even in modern aircraft; performing these stress-inducing maneuvers on helicopters approaching 40 years of service compounds the risk profile significantly.

Modernization Pressure
We anticipate this incident will accelerate political pressure on the Ministry of National Defense to expedite the retirement of the remaining AH-1S Cobras. While South Korea has become a major exporter of advanced defense hardware, such as the K2 tank and FA-50 light combat aircraft, the domestic reliance on Vietnam-era derivative helicopters creates a stark capability gap. The tragedy may force the military to prioritize the delivery of the KAI LAH to prevent further loss of life among aircrews operating obsolete equipment.

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Photo Credit: Reuters

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