Defense & Military
RTX Collins Aerospace Delivers NavHub-200M Military GPS Systems to Europe
RTX Collins Aerospace supplies Europe with NavHub-200M, the first non-ITAR M-Code GPS system enhancing military navigation and electronic warfare resilience.
RTX’s Collins Aerospace has marked a significant milestone in the evolution of military navigation technology with the delivery of its first six NavHub-200M units to a European customer. This event not only signals a technological leap for ground forces but also reflects the shifting dynamics of global defense cooperation. The NavHub-200M stands as the first non-ITAR (International Traffic in Arms Regulations) vehicular navigation system compatible with military M-code receiver technology, now available on the international market. Its advanced Assured Positioning, Navigation, and Timing (APNT) capabilities, hardened against jamming and spoofing, address vulnerabilities exposed by recent conflicts and the rapidly evolving landscape of electronic warfare.
With Collins Aerospace having delivered over 10,000 navigation systems worldwide and the military GNSS anti-jamming systems market projected to reach $19.2 billion by 2035, this development represents a strategic expansion of advanced military navigation capabilities to allied nations. The integration of M-Code and robust anti-jamming technology ensures operational security and resilience, positioning Collins Aerospace as a key player in the ongoing modernization of military navigation systems.
The Global Positioning System (GPS), originally developed by the U.S. Department of Defense, has become the backbone of modern military operations. Today, approximately 80% of military operations rely on GNSS for navigation. However, the vulnerabilities of standard GPS signals to interference and spoofing attacks have driven the development of more sophisticated protection mechanisms over the past two decades.
Early efforts to secure GPS included the implementation of the Selective Availability Anti-Spoofing Module (SAASM) and the P(Y) code signal. Despite their advancements, these systems still depended on the civilian Coarse/Acquisition (C/A) signal, creating exploitable vulnerabilities. The development of M-Code marked a paradigm shift, offering military users a dedicated, encrypted GPS signal that operates independently of civilian infrastructure.
M-Code operates on both L1 and L2 GPS bands, using binary offset carrier (BOC) modulation, and is encrypted with the Modernized Navstar Security Algorithm (MNSA). This ensures that military receivers can determine position using M-Code alone, enhancing operational autonomy and security in contested environments. Collins Aerospace’s NavHub-200M builds upon this foundation, offering enhanced protection and interoperability for ground forces worldwide.
The initial focus of military GPS security was the implementation of SAASM and P(Y) code, which provided some level of anti-spoofing and encryption. However, reliance on the civilian C/A signal persisted as a vulnerability. M-Code was developed to address these shortcomings by providing a military-only, encrypted signal, transmitted separately from civilian signals, and capable of autonomous acquisition.
This transition to M-Code technology has been critical in addressing the increasing sophistication of electronic warfare threats. The BOC (10,5) modulation used in M-Code ensures compatibility with legacy systems while preventing interference, setting a new standard for military navigation security.
Collins Aerospace has leveraged decades of experience in navigation technology to develop the NavHub-200M, integrating these advancements into a system designed to meet the challenges of modern warfare. Its introduction marks a significant step forward in the protection and reliability of military navigation systems. “NavHub-200M brings critical M-code receiver technology to ground forces, enhancing their defense against jamming and spoofing threats. The protection from electronic attack is crucial for operational success.”, Sandy Brown, Collins Aerospace
The operational landscape for military navigation has changed dramatically in recent years. Conflicts such as the war in Ukraine have highlighted the effectiveness of electronic warfare (EW) in disrupting navigation and communications. Adversaries have deployed sophisticated jamming and spoofing systems, targeting both civilian and military GPS signals.
These developments have underscored the necessity of resilient navigation systems. M-Code’s encrypted, autonomous signal provides a robust defense against such threats, ensuring that military operations can continue even in contested electromagnetic environments.
The NavHub-200M’s deployment in Europe is a direct response to these operational challenges, providing allied forces with the tools needed to maintain positional awareness and mission effectiveness under electronic attack.
The NavHub-200M is engineered to operate effectively in the most challenging electronic warfare environments. Building on the proven NavHub-200 platform, the M variant introduces M-Code receiver technology and advanced anti-jamming capabilities, including military grade encryption and robust authentication mechanisms.
Key technical features include simultaneous L1 and L2 dual-frequency GPS reception, 12 channels for all-in-view navigation, and optional 24-channel software capabilities. The system’s multi-channel design ensures continuous satellite tracking and operational effectiveness in degraded signal conditions.
NavHub-200M’s anti-jamming performance is notable, with 54 dB protection while tracking and 41 dB direct Y acquisition capability. Its aggressive acquisition strategies enable cold start performance in under 110 seconds. The unit supports legacy interfaces (PLGR, DAGR) for seamless integration and offers enhanced connectivity via Ethernet, CAN-Bus, and USB 2.0.
Designed for military vehicles, the NavHub-200M meets stringent EMI/EMC requirements and maintains an ingress protection rating of IP67. Its calculated mean time between failures (MTBF) exceeds 15,000 hours, supporting reliability in mission-critical scenarios.
Security architecture is a core strength, with SAASM and M-Code expansion capability, unclassified-when-keyed operation, and black-key functionality for Over-The-Air-Rekeying (OTAR). This framework ensures sensitive navigation data remains protected while supporting operational flexibility. The system is also designed for future upgrades, including support for Galileo and other GNSS constellations, as well as integration with inertial sensors for hybrid navigation solutions.
The military GNSS anti-jamming systems market is projected to grow from $12.4 billion in 2024 to $19.2 billion by 2035. This reflects a compound annual growth rate (CAGR) of 4.9%, driven by increasing recognition of GNSS vulnerabilities and demand for robust navigation solutions.
RTX Corporation, Collins Aerospace’s parent company, reported $80.8 billion in adjusted sales for 2024, with Collins Aerospace contributing $28.3 billion and 13% growth in the defense sector. This financial strength supports continued investment in navigation technology and international expansion.
The receiver unit segment, which includes products like the NavHub-200M, is expected to capture the largest share of the anti-jamming market. North America currently leads, but Europe and Asia-Pacific are projected to see rapid growth, spurred by rising defense budgets and geopolitical tensions.
The Pentagon’s 2023 budget allocated over $300 million specifically for anti-jamming system development, underscoring the strategic priority of GNSS protection.
M-Code technology is central to the NavHub-200M’s strategic value. Its encrypted signals and autonomous acquisition capabilities provide critical operational advantages in contested environments. Spot beam transmissions from GPS Block III satellites deliver M-Code with up to 20 dB more power than conventional signals, greatly enhancing resistance to jamming.
M-Code’s anti-spoofing features are particularly relevant in modern conflict, where adversaries have developed advanced spoofing techniques. The encrypted signal and authentication mechanisms prevent unauthorized access and manipulation, ensuring the integrity of military navigation data.
Blue Force Electronic Attack compatibility allows friendly forces to jam civilian GPS signals while maintaining their own M-Code navigation, offering tactical advantages in electronic warfare scenarios. The NavHub-200M’s M-Code compatibility ensures readiness for these emerging operational requirements.
The non-ITAR designation of the NavHub-200M enables broader sharing of advanced navigation technology with allied nations. Traditionally, ITAR restrictions limited access to such capabilities, but the NavHub-200M’s exportability reflects a strategic shift in U.S. defense technology policy. Production at Collins Aerospace’s Heidelberg, Germany facility demonstrates a commitment to the European market and simplifies export control compliance. This approach supports NATO and allied nations in strengthening their GNSS resilience and interoperability with U.S. forces.
Over 70% of NATO countries are now investing in GNSS resilience projects, and the availability of non-ITAR M-Code systems like the NavHub-200M is expected to drive broader adoption and cooperation in the field of military navigation.
Recent conflicts, particularly in Ukraine, have highlighted the vulnerability of conventional navigation systems to electronic warfare. Russian forces have deployed systems such as Krasukha-4, Leer-3, and Murmansk-BN, capable of disrupting GPS and communications over wide areas.
Ukrainian forces have responded with adaptive countermeasures, including frequency-hopping radios, encrypted communications, and terrestrial networks. However, the challenge remains significant, especially for unmanned systems and Drones, which are highly susceptible to jamming and spoofing.
The NavHub-200M’s advanced anti-jamming and anti-spoofing capabilities directly address these threats, providing ground forces with reliable navigation even in heavily contested electromagnetic environments. Its deployment is a proactive step toward mitigating the operational impact of electronic warfare.
“The effectiveness of electronic warfare against navigation systems has been demonstrated repeatedly in the Ukraine conflict, forcing operators to develop alternative methods and underscoring the need for resilient navigation technology.”
The delivery of RTX Collins Aerospace’s NavHub-200M units to Europe represents a pivotal advancement in military navigation technology. By integrating M-Code, robust anti-jamming, and advanced security features into a non-ITAR system, Collins Aerospace has provided allied forces with a critical tool for maintaining operational effectiveness in the face of evolving electronic warfare threats.
This development not only strengthens NATO and allied defense capabilities but also sets a precedent for future international cooperation and technology sharing. As military operations increasingly depend on resilient, secure navigation, the NavHub-200M is poised to play a central role in shaping the future of military positioning and timing solutions worldwide.
What is the NavHub-200M? What is M-Code and why is it important? Why is the NavHub-200M significant for Europe? How does the NavHub-200M improve protection against electronic warfare? What are the market implications of this delivery? Sources:
RTX Collins Aerospace Delivers Revolutionary M-Code Navigation Systems to Europe: A Strategic Shift in Military GPS Technology
Background and Historical Context of Military GPS Technology
Technical Evolution: From SAASM to M-Code
Operational Significance in Modern Warfare
Technical Specifications and Capabilities of NavHub-200M
Environmental and Security Features
Market Analysis and Financial Implications
Strategic Importance of M-Code Technology
International Strategic Implications and ITAR Considerations
Electronic Warfare Context and Threat Environment
Conclusion
FAQ
The NavHub-200M is an advanced vehicular navigation system developed by Collins Aerospace, featuring M-Code compatibility, anti-jamming, and anti-spoofing capabilities for Military-Aircraft applications.
M-Code is an encrypted, military-only GPS signal that provides enhanced security, autonomy, and resistance to jamming and spoofing, making it essential for modern military navigation.
It is the first non-ITAR M-Code compatible navigation system available to international customers, allowing European allies to access advanced GPS technology without U.S. export restrictions.
The system offers 54 dB jamming protection while tracking, advanced authentication, and can operate autonomously on M-Code, ensuring reliable navigation even in contested electromagnetic environments.
The delivery positions Collins Aerospace as a leader in the growing military GNSS anti-jamming market, projected to reach $19.2 billion by 2035, and supports increased defense cooperation among NATO allies.
RTX News Center
Photo Credit: RTX
Defense & Military
Volatus Aerospace and Sentinel R&D Partner on Canadian Interceptor UAV
Volatus Aerospace and Sentinel R&D sign a non-binding MOU to develop a Canadian interceptor UAV platform supporting sovereign defense capabilities.
This article is based on an official press release from Volatus Aerospace Inc.
Volatus Aerospace Inc. has entered into a Memorandum of Understanding (MOU) with Sentinel R&D Inc. to develop a Canadian-developed interceptor unmanned aerial vehicle (UAV) platform. According to a company press release, the collaboration aims to support Canada’s sovereign UAV capabilities and align with evolving defense and security requirements.
The agreement brings together Sentinel’s expertise in advanced composite UAV structures and airframe engineering with Volatus’s background in systems integration, autonomy software, and global commercialization. We note that this partnership reflects a broader industry push toward domestic aerospace manufacturing and technological independence.
Under the newly established framework, the two companies will divide responsibilities to leverage their respective strengths. The official press release states that Sentinel is expected to handle the UAV platform engineering, airframe design, and composite manufacturing. Meanwhile, Volatus will take the lead on systems integration, mission systems, autonomy development, testing, and commercialization activities.
The companies also intend to explore opportunities for scalable Canadian production. This aligns with priority capability areas identified in Canada’s Defence Industrial Strategy, which emphasizes the need for sovereign industrial capacity in key defense technology domains.
“Volatus continues to execute on its strategy of combining Canadian manufacturing, autonomy software, and operational capability into an integrated aerospace platform, building an integrated aerospace and defence capability spanning manufacturing, autonomy, and operations,”
said Glen Lynch, Chief Executive Officer of Volatus Aerospace, in the press release. Lynch added that the collaboration reinforces the company’s investments in advanced manufacturing initiatives, including its Mirabel aerospace manufacturing facility and the V-Cortex AI autonomy platform.
The non-binding MOU serves as a foundational step for engineering cooperation and potential future commercial agreements between the two Canadian aerospace firms. While the agreement does not create binding purchase obligations, it sets the stage for further technical and commercial discussions.
“Volatus brings strong integration, autonomy, and operational expertise that complements Sentinel’s platform engineering capabilities. We believe this collaboration represents a meaningful opportunity to strengthen Canadian unmanned systems innovation and manufacturing capability,”
stated Dr. Katheron Intson, Chief Executive Officer of Sentinel R&D, according to the release. We observe that the partnership between Volatus Aerospace and Sentinel R&D highlights a growing trend among defense and aerospace companies to localize supply chains and manufacturing capabilities. By focusing on a Canadian-developed interceptor UAV platform, the collaboration directly addresses the objectives of Canada’s Defence Industrial Strategy. The integration of Sentinel’s modular, payload-agnostic fixed-wing drone designs with Volatus’s V-Cortex AI autonomy platform could position the joint effort as a competitive offering in both domestic and allied defense markets. However, as the current MOU is non-binding, the long-term impact will depend on the successful transition from engineering cooperation to formalized commercial production.
According to the press release, the companies intend to work together to advance a Canadian-developed interceptor UAV platform that aligns with evolving defense and security requirements.
Sentinel R&D is expected to provide UAV platform engineering, airframe design, and composite manufacturing expertise. Volatus Aerospace will lead systems integration, mission systems, autonomy development, testing, and commercialization.
No. The press release notes that the Memorandum of Understanding is non-binding and establishes a framework for engineering cooperation, subject to further technical and commercial discussions.
Volatus Aerospace and Sentinel R&D Forge Strategic UAV Partnership
Framework for a Sovereign Interceptor UAV
Combining Engineering and Autonomy
Strengthening Domestic Innovation
Leadership Perspectives
AirPro News analysis
Frequently Asked Questions
What is the goal of the Volatus and Sentinel collaboration?
What will each company contribute to the partnership?
Is the agreement between Volatus and Sentinel legally binding?
Sources
Photo Credit: Volatus Aerospace
Defense & Military
Airbus Helicopters Advances Dual-Use H140 for Hybrid Warfare and HEMS
Airbus Helicopters unveils the H140, a dual-use rotorcraft designed for hybrid warfare and emergency medical services, entering service in 2028.
On March 23, 2026, Airbus Helicopters outlined a significant shift in its design and manufacturing philosophy, driven by an increasingly unpredictable global threat landscape. As natural disasters multiply and the lines between civil and military operations blur into “hybrid warfare,” the aerospace manufacturer is moving away from simply upgrading individual aircraft. Instead, the company is focusing on delivering holistic, dual-use systems capable of adapting to rapidly changing mission requirements.
According to the official Airbus publication, this strategic pivot is heavily informed by direct operator feedback. By integrating end-users into the conceptualization phase, Airbus aims to ensure its next generation of rotorcraft, most notably the upcoming H140, is mission-capable from day one. The company emphasizes that modern operators require assets that can seamlessly transition between saving lives during climate crises and operating in contested geopolitical environments.
The traditional divide between peacetime civil operations and wartime military deployments has become highly porous. William Sampson, Vice President and Head of Market Operations at Airbus Helicopters, highlighted this “grey space” in the company’s recent release. Sampson, who assumed his role in 2025 following a decade-long diplomatic career with the UK’s Foreign & Commonwealth Office focusing on counter-terrorism, brings a unique geopolitical perspective to the manufacturer’s strategy.
To meet these unpredictable challenges, Airbus is prioritizing modularity and standardization across its fleet. By continuously improving Avionics and reducing pilot workload, crews can focus entirely on complex missions rather than the mechanics of flying.
“We design and deliver aircraft which can work as a system to meet your needs, rather than individual platforms.”
Sampson further noted in the Airbus release that the current global environment requires deep collaboration between Manufacturers, authorities, and end-users.
“The world in 2026 is a challenging space for everyone… And it’s our job at Airbus Helicopters to work with both authorities trying to manage this situation and to work with the operators who protect citizens and save lives.”
The prime example of this new philosophy is the Airbus H140. Formally launched on March 11, 2025, at the VERTICON industry show in Dallas, Texas, the H140 is a 3-tonne class light twin-engine Helicopters scheduled to enter service in 2028. Designed to bridge the gap between the existing H135 and H145 models, it was purpose-built primarily for Helicopter Emergency Medical Services (HEMS) in close collaboration with global operators.
According to industry research data detailing the aircraft’s specifications, the H140 incorporates several key engineering innovations designed for high-stakes environments:
Sampson’s assertions regarding the market’s need for adaptable aircraft are supported by a series of major contracts signed around the VERTICON 2026 event. On March 11, 2026, German HEMS operator ADAC Luftrettung signed a strategic long-term framework contract for H135, H140, and H145 helicopters, cementing its role as a launch customer and development partner for the H140.
On the same day, Austria’s ÖAMTC Flugrettung signed a similar framework contract. According to the provided research data, ÖAMTC CEO Marco Trefanitz noted that his organization contributed operational expertise directly into the H140’s design. Additionally, Air Transport Europe, operating in Slovakia and the Czech Republic, announced a contract for one H135 and one H140 for demanding mountainous HEMS operations. In the corporate sector, Airbus Corporate Helicopters (ACH) secured launch customers for the ACH140 variant, including Sweet Helicopters in the US and Columbia Aviation Holding in Brazil, with deliveries expected in 2030.
We observe that Airbus Helicopters is strategically leveraging the demanding requirements of the HEMS sector to stress-test its dual-use philosophy. By focusing on the “grey space” of hybrid warfare and climate response, Airbus is positioning its light-twin fleet not just as transport vehicles, but as integrated survival systems. The emphasis on the H140’s T-tail design, which directly addresses the critical need for enhanced hover performance during rescue missions, demonstrates a tangible link between geopolitical threat assessments and physical engineering. This operator-integrated approach likely reduces long-term development risks by ensuring the final product already has a committed, invested customer base prior to its 2028 Launch into service.
The Airbus H140 is a 3-tonne class light twin-engine helicopter designed primarily for emergency medical services and dual-use operations. It is engineered to bridge the gap between the existing Airbus H135 and H145 models.
The H140 is scheduled to enter commercial service in 2028. Corporate variants, designated as the ACH140, are expected to begin deliveries to launch customers in 2030.
Driven by the rise of hybrid warfare and the increasing frequency of natural disasters, Airbus is designing aircraft that can seamlessly transition between civil and military roles. The goal is to provide adaptable systems that integrate with operator needs, rather than isolated platforms.
Sources: Airbus
The Shift to Systems Over Platforms
Adapting to Hybrid Warfare and Climate Crises
Spotlight on the Airbus H140
Operator-Integrated Design and Technical Innovations
Market Response and Recent Orders
VERTICON 2026 Success
AirPro News analysis
Frequently Asked Questions (FAQ)
What is the Airbus H140?
When will the Airbus H140 enter service?
Why is Airbus shifting to a “systems” design approach?
Photo Credit: Airbus
Defense & Military
Oregon Deploys New Multi-Mission Aircraft to Boost Wildfire Response
Oregon bases a new multi-mission aircraft at Prineville Airport to improve wildfire and emergency response with advanced AI and thermal imaging tech.
This article is based on an official press release from the Oregon Department of Forestry.
The Oregon Department of Forestry (ODF) is significantly upgrading its statewide emergency and wildfire response infrastructure, with the introduction of a new multi-mission aircraft. Designed to track emerging threats and provide critical aerial intelligence, the aircraft represents a major modernization of the state’s aviation program.
According to an official press release from the ODF, the new aircraft will be permanently based at Prineville Airport in central Oregon. This strategic positioning is intended to optimize flight times across the state and place the aircraft closer to regions most vulnerable to severe weather and fire activity.
The deployment of the aircraft is a collaborative effort. State officials emphasize that the platform will serve not just forestry needs, but a broader all-hazards mission, working in tandem with various local, state, and federal partners to protect Oregon communities.
Choosing Prineville Airport as the home base for the new multi-mission aircraft was a calculated operational decision by the ODF. Central Oregon offers a geographic advantage that minimizes transit times to the state’s borders, ensuring rapid deployment when incidents occur.
In the ODF press release, State Aviation Manager Neal Laugle highlighted the logistical benefits of the Prineville location.
“We can easily reach all four corners of the state with relatively short flight times from Prineville,” Laugle stated.
Beyond simple geography, the placement aligns with the state’s historical weather patterns. The aircraft is equipped to closely monitor lightning storm activity, which is a primary catalyst for wildfires in the region.
“Also, lightning storm activity, that the aircraft tracks closely, is typically more frequent in eastern and southern Oregon so it makes operational sense to base it there,” Laugle added in the release.
The new aircraft is expected to be a cornerstone of Oregon’s emergency response system. According to secondary reporting by iHeart, the ODF is investing $13.23 million into this initiative, which includes a Twin Otter airframe to replace the agency’s retiring Partenavia P.68 Observer after more than 30 years of service. The iHeart report notes that $5.4 million of this investment is dedicated to advanced sensing technology, including AI-enabled mapping and high-definition thermal imaging. To maximize the utility of these new technological capabilities, the ODF is ensuring the aircraft serves multiple agencies. Sarah Prout, identified by iHeart as the ODF’s State Aviation Coordinator, emphasized the importance of interagency cooperation in the official release.
The ODF is actively coordinating with the Department of Emergency Management, the Oregon State Fire Marshal, federal partners, and local agencies.
“…to ensure the aircraft is fully integrated into Oregon’s emergency response system,” Prout explained in the company statement.
The acquisition of a dedicated, high-tech multi-mission aircraft underscores a growing trend we are observing among state forestry and fire departments: the shift from purely reactive firefighting to proactive, intelligence-driven aerial monitoring. By integrating AI and thermal imaging into a centralized platform, Oregon is positioning itself to detect ignitions earlier and allocate ground resources more efficiently. Basing the aircraft in Prineville not only cuts down on response times but also ensures the asset is staged where the natural threat of dry lightning is most concentrated.
The new multi-mission aircraft will be based at Prineville Airport in central Oregon, allowing for rapid response times to all corners of the state.
According to ODF State Aviation Manager Neal Laugle, Prineville offers centralized access to the entire state and is closer to eastern and southern Oregon, where lightning storm activity is more frequent.
The aircraft is fully integrated into Oregon’s emergency response system, collaborating with the Oregon Department of Forestry, the Department of Emergency Management, the Oregon State Fire Marshal, federal partners, and local agencies.
Strategic Placement at Prineville Airport
Centralized Response Capabilities
Tracking Lightning and Fire Threats
Advanced Capabilities and Interagency Integration
Upgrading Oregon’s Aerial Fleet
A Unified Emergency Network
AirPro News analysis
Frequently Asked Questions
Where will the new ODF aircraft be based?
Why was Prineville chosen as the base?
What agencies will use the aircraft?
Sources
Photo Credit: Oregon Department of Forestry
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