Defense & Military
RTX Collins Aerospace Wins NATO Contract for Advanced Electronic Warfare System
RTX’s Collins Aerospace secures NATO contract to deliver AI-enabled Electronic Warfare Planning and Battle Management system enhancing spectrum dominance.
Introduction
In September 2025, RTX Corporation’s Collins Aerospace division secured a significant contract with the NATO Communications and Information Agency (NCIA) to deliver advanced Electronic Warfare Planning and Battle Management (EWPBM) systems. This development is more than a milestone for Collins Aerospace; it reflects NATO’s strategic prioritization of electromagnetic spectrum dominance in modern military operations. As the electromagnetic environment becomes increasingly contested, NATO’s decision underscores the alliance’s commitment to technological superiority and integrated defense capabilities.
The awarded EWPBM system aims to provide NATO commanders with real-time situational awareness, automate sensor management, and coordinate electronic warfare assets across complex operational theaters. This move comes amid a surge in global defense spending, particularly within NATO, and a rapidly growing electronic warfare market. The contract not only strengthens RTX’s market position but also signals broader trends in defense technology, multi-domain operations, and geopolitical competition.
This article explores the evolution of electromagnetic warfare, the specifics of the Collins Aerospace contract, market and industry trends, and the broader strategic implications for NATO and the global defense landscape.
The Evolution of Electromagnetic Warfare in Modern Doctrine
Changing Military Priorities and the Rise of Electromagnetic Spectrum Operations
The electromagnetic spectrum has emerged as a critical domain in contemporary military doctrine, alongside traditional land, air, sea, and cyber domains. Electronic warfare (EW) comprises electronic attack, electronic protection, and electronic support, functions that are now essential as modern militaries rely heavily on digital communications, precision navigation, and sensor networks. This reliance creates both operational advantages and vulnerabilities, making spectrum dominance a strategic imperative.
Historical conflicts have demonstrated the decisive impact of EW. During the 1991 Gulf War, U.S. forces used coordinated jamming and anti-radiation missiles to neutralize Iraqi air defenses, shaping the outcome of the campaign. Today, adversaries have developed more sophisticated EW capabilities, necessitating advanced countermeasures and integrated planning. Russian doctrine, for example, emphasizes EW as a central pillar of information warfare, while Chinese military strategy incorporates EW into broader anti-access/area denial (A2/AD) frameworks.
Recent conflicts, such as the ongoing war in Ukraine, have highlighted the real-world significance of EW. Russian forces have deployed systems like Zhitel and Krasukha for communications jamming and GPS spoofing, demonstrating the ability to degrade enemy command and control within minutes. The proliferation of unmanned systems and sensor networks further amplifies the importance of EW, as congested and contested electromagnetic environments become the norm on modern battlefields.
“Success in future conflicts will depend on the ability to operate effectively when traditional communication and navigation systems are degraded, denied, or disrupted.”
NATO’s Strategic Response and the Need for Interoperable Solutions
NATO’s investment in advanced EW capabilities is a direct response to the evolving threat landscape. The alliance recognizes that future conflicts will be decided by the capacity to dominate the electromagnetic spectrum and deny adversaries the same. This requires not only advanced technology but also interoperability across national boundaries and service branches.
The EWPBM system delivered by Collins Aerospace is designed to address these requirements. By integrating data from operational systems, intelligence sources, and distributed sensors, the system provides a unified Recognized Electromagnetic Picture (REP) and an Electronic Order of Battle (EOB). This enables commanders to visualize threats, coordinate jamming operations, and automate asset management in real time.
Automation and AI are increasingly central to EW planning and execution. The EWPBM system’s AI-driven features reduce response times and optimize resource allocation, ensuring that NATO forces can counter rapidly evolving threats. This aligns with the alliance’s broader shift toward multi-domain operations, where electromagnetic effects must be synchronized with kinetic, cyber, and information operations.
NATO’s Electronic Warfare Planning and Battle Management System
Technical Capabilities and System Integration
The EWPBM system represents a leap forward in EW command and control. It fuses data from multiple sources to create a comprehensive REP, correlating electromagnetic signatures with geographic locations and operational patterns. The EOB function provides detailed information on electronic devices in the operational area, supporting tactical decisions and resource allocation.
Advanced Automation is a hallmark of the system. AI-enabled threat detection and response algorithms continuously monitor the electromagnetic environment, adapt to new threat signatures, and recommend or execute countermeasures. This reduces the cognitive load on operators and allows for faster, more effective responses in dynamic scenarios.
Interoperability is a core requirement. The EWPBM system uses standardized data formats and communication protocols to ensure seamless integration with NATO’s command and control infrastructure. Its modular architecture allows for scalability, from small tactical units to theater-level commands, making it suitable for diverse mission requirements across the alliance.
“The system equips commanders with critical tools to visualize electronic warfare threats while automating the deployment and coordination of jammers and sensors.” — Ryan Bunge, Collins Aerospace
Operational Impact and Implementation
NATO’s adoption of the EWPBM system is expected to enhance alliance-wide EW coordination and operational effectiveness. By providing a common operating picture and automating key functions, the system enables faster decision-making and more efficient use of EW assets. This is particularly important in coalition operations, where forces from multiple nations must work together seamlessly.
The system’s deployment will involve rigorous testing, validation, and integration phases. Collins Aerospace will collaborate closely with NATO to ensure that the system meets operational requirements and enhances collective defense capabilities. The focus on interoperability and scalability means that the system can evolve alongside emerging threats and technological advancements.
Ultimately, the EWPBM system is a foundational capability for NATO’s multi-domain operations strategy. It supports the alliance’s ability to respond to hybrid threats that combine conventional, cyber, and electronic attacks, ensuring that NATO remains agile and resilient in an increasingly complex security environment.
Market Dynamics, Financial Context, and Industry Trends
Growth of the Electronic Warfare Market
The global electronic warfare market is experiencing robust growth, driven by rising recognition of spectrum dominance as a critical military capability. Market analysts project that the EW market will expand from $19.44 billion in 2024 to $538.30 billion by 2033, with compound annual growth rates varying between 8.3% and 44.63%, depending on the segment and methodology. The cognitive EW segment, which leverages AI and machine learning, is expected to see particularly strong growth, reaching $82.99 billion by 2033.
North America leads global EW spending, accounting for about 40% of the market and generating over $7 billion in regional revenue. The United States alone allocates more than $11 billion annually to EW research and development, with $5 billion specifically earmarked for capability enhancements in 2024. In Europe, NATO members have collectively increased their defense investments, contributing $454 billion to alliance spending in 2024.
This surge in spending reflects a strategic shift toward proactive investment in next-generation EW systems, driven by lessons from recent conflicts and the need to counter near-peer adversaries. As a result, defense contractors with advanced EW portfolios, such as RTX, are well positioned to capture significant market share.
RTX’s Financial Performance and Strategic Positioning
RTX Corporation has demonstrated strong financial performance, reporting $80.74 billion in revenue for 2024, an increase of nearly 12% over the previous year. Adjusted earnings per share grew 13% to $5.73, supported by a robust backlog of $218 billion, including $93 billion in defense programs. The company’s $7.5 billion annual R&D investment underpins its technological leadership in EW, AI, and other critical areas.
Recent contract wins, such as the $904 million Cooperative Engagement Capability contract with the U.S. Navy and the $590 million Next Generation Jammer Mid-Band production contract, have further strengthened RTX’s position. The company’s strategic partnerships, including co-production agreements with European firms, enhance its ability to meet customer requirements and expand its industrial footprint.
RTX’s diversified structure, encompassing Collins Aerospace, Pratt & Whitney, and Raytheon, enables it to deliver integrated solutions across multiple domains. This positions the company to lead in the development and deployment of advanced EW systems for both U.S. and international customers.
Broader Industry and Geopolitical Trends
The growing importance of EW is reflected in broader defense spending trends. NATO’s collective military expenditure reached $1.5 trillion in 2024, representing 55% of global defense spending. The alliance’s new target of 5% of GDP by 2035 signals a long-term commitment to modernization and capability development.
Geopolitical competition with Russia and China is a key driver of these investments. Both adversaries have demonstrated sophisticated EW capabilities, prompting NATO to accelerate the development and fielding of advanced countermeasures. International cooperation and interoperability are increasingly vital, as no single nation can address the full spectrum of EW threats alone.
The convergence of EW, cyber operations, and AI is reshaping the defense technology landscape. Companies that can integrate capabilities across domains will have a distinct competitive advantage, while those that remain siloed may struggle to keep pace with evolving requirements.
Conclusion
The NATO contract awarded to RTX’s Collins Aerospace division marks a pivotal step in the alliance’s efforts to modernize its electromagnetic warfare capabilities. The EWPBM system’s advanced situational awareness, automation, and interoperability features address critical operational needs validated by recent conflicts and emerging threats. By integrating AI-driven planning and real-time response, the system positions NATO to maintain spectrum dominance in contested environments.
Looking ahead, sustained investment in EW, AI, and integrated multi-domain operations will be essential for NATO and its partners. As the electronic warfare market continues to expand and adversary capabilities evolve, collaborative development and technological innovation will remain at the forefront of defense strategy. RTX’s leadership in this space, supported by strong financials and a comprehensive technology portfolio, ensures it will play a central role in shaping the future of military operations in the electromagnetic domain.
FAQ
What is the Electronic Warfare Planning and Battle Management (EWPBM) system?
The EWPBM system is an advanced software solution developed by Collins Aerospace for NATO. It provides real-time situational awareness of the electromagnetic spectrum, automates sensor and jammer management, and enables commanders to coordinate electronic warfare operations across complex environments.
Why is electromagnetic warfare important for NATO?
Electromagnetic warfare is critical because modern militaries depend on digital communications, navigation, and sensor networks. Dominating the electromagnetic spectrum protects these assets and degrades adversary capabilities, which is essential for operational success in contemporary conflicts.
How large is the global electronic warfare market?
Market projections vary, but analysts estimate the global electronic warfare market could grow from $19.44 billion in 2024 to $538.30 billion by 2033, with particularly strong growth in AI-enabled and cognitive EW segments.
What role does artificial intelligence play in modern electronic warfare?
AI enhances EW systems by enabling automated threat detection, adaptive countermeasure deployment, and real-time data analysis. This allows for faster and more effective responses to evolving threats, reducing the workload on human operators.
How does RTX benefit from the NATO contract?
The contract strengthens RTX’s position as a leader in the defense technology sector, expands its market share in the growing EW domain, and validates its technological approach to integrated, AI-enabled battle management systems.
Sources:
RTX News Center
Photo Credit: RTX
Defense & Military
U.S. Navy MQ-25A Stingray Achieves Milestone C Approval for Production
The U.S. Navy grants Milestone C to MQ-25A Stingray, enabling Low-Rate Initial Production of the carrier-based UAV for aerial refueling and ISR missions.
This article is based on an official press release from the U.S. Navy.
Navy’s MQ-25A Stingray Secures Milestone C Approval, Entering Initial Production
The U.S. Navy has officially granted Milestone C approval to the MQ-25A Stingray program, marking a critical transition from the engineering phase into manufacturing and deployment. Announced on May 19, 2026, by Acting Secretary of the Navy Hung Cao, this decision authorizes Low-Rate Initial Production (LRIP) for the world’s first fully integrated, carrier-based unmanned aerial vehicle (UAV).
Developed by Boeing, the MQ-25A is designed primarily to provide organic aerial refueling to the Carrier Air Wing (CVW). By taking over routine tanking duties, the Stingray will relieve manned F/A-18E/F Super Hornets, significantly extending the operational reach and lethality of U.S. Carrier Strike Groups. According to the official Navy press release, this milestone follows a highly successful test flight of a production-representative aircraft in late April 2026, which cleared the path for fleet introduction.
The transition to production represents a major technological leap for naval aviation, introducing a hybrid manned-unmanned model to the flight deck and setting the doctrinal foundation for future collaborative combat aircraft.
Overcoming Delays and Proving Capabilities
The Crucial April Test Flight
The Milestone C decision was heavily dependent on the successful first test flight of a production-representative MQ-25A Stingray, which took place on April 25, 2026. As detailed in the Navy’s release, the aircraft launched from Boeing’s facility at MidAmerica Airport in Mascoutah, Illinois, and completed a comprehensive two-hour flight.
During this flight, the UAV autonomously executed a digitally programmed mission plan. The demonstration included taxiing, takeoff, complex flight maneuvers, and landing. Furthermore, the aircraft successfully responded to commands from the Unmanned Carrier Aviation Mission Control System (UMCS) MD-5 Ground Control Station, proving its readiness for carrier integration.
This successful demonstration was vital for the program’s advancement. The MQ-25A had previously missed its originally scheduled Milestone C target in fiscal year 2023 due to technical and production delays. The Pentagon’s Director, Operational Test and Evaluation (DOT&E) had previously cited concerns over the program’s reliance on data from an early prototype rather than production-representative hardware. The April 2026 flight of the operational model effectively resolved these hurdles.
“Boeing is honored to work alongside our U.S. Navy partner in achieving this historic milestone in the MQ-25A Stingray’s development life cycle. We remain focused on getting this game-changing unmanned aircraft into the hands of the fleet and integrated into the carrier air wing.”
, Troy Rutherford, Vice President of Boeing’s MQ-25 Program, via Navy press release
Production Contracts and Program Scale
Transitioning to Low-Rate Initial Production
With Milestone C secured, the Navy is moving rapidly to initiate manufacturing. According to program data, the Navy is expected to award an LRIP Lot 1 contract for three aircraft this summer. This upcoming contract will also include priced options for Lot 2, which covers three additional aircraft, and Lot 3, which covers five aircraft.
The financial scope of the MQ-25A program is substantial. The original Engineering and Manufacturing Development (EMD) contract, signed in 2018, was valued at $805 million for the design, development, and delivery of the first four Stingray aircraft. Moving forward, the Navy expects the total program to cost approximately $13 billion to procure a complete fleet of 72 aircraft.
“Unmanned refueling extends our reach against any adversary. Moving the MQ-25A Stingray to Milestone C and into production is arming our warfighters with a capability that increases the lethality of our Carrier Strike Groups. This is a decisive advantage that delivers our warfighters what they need to fight and win.”
, Hung Cao, Acting Secretary of the Navy, via Navy press release
Technical Specifications and Strategic Impact
Engineering for Endurance
To meet the demanding requirements of carrier-based aerial refueling, the MQ-25A is powered by a single Rolls-Royce AE 3007N engine. This engine features a high-bypass-ratio (5:1) architecture specifically designed for low specific fuel consumption, which is critical for enabling the long-endurance missions required of a fleet tanker. While its primary mission is refueling, the Navy notes that the MQ-25A is also equipped to conduct Intelligence, Surveillance, and Reconnaissance (ISR) missions, adding a secondary layer of utility to the Carrier Air Wing.
“The Rolls-Royce AE 3007N engine was integral to the successful first flight of the MQ-25A Stingray, which will greatly enhance the range and capability of the U.S. Carrier Air Wing. We are honored the U.S. Navy has, once again, put its trust in our proven, reliable family of high-performance AE engines for this critical new unmanned platform.”
, Meagan Rater, Director of U.S. Mature Programs for Defense, Rolls-Royce, via Navy press release
Redefining Carrier Strike Range
The introduction of the Stingray addresses a critical operational bottleneck for the Navy. Currently, up to 20 to 30 percent of F/A-18 Super Hornet flight hours are consumed by “buddy tanking”, the practice of using manned fighters to refuel other fighters. By assuming this organic tanking mission, the MQ-25A will preserve the service life of the Super Hornet fleet and allow manned fighters to focus strictly on combat and strike missions.
Furthermore, the Stingray is designed to offload up to 15,000 pounds of fuel at a distance of 500 nautical miles from the aircraft carrier. This capability effectively doubles the strike range of manned aircraft, a crucial metric for modern naval operations.
AirPro News analysis
The Milestone C approval for the MQ-25A Stingray is more than just an acquisition checkpoint; it represents a fundamental shift in the geometry of naval warfare. By allowing aircraft carriers to project power from significantly further away, the Navy is directly addressing the growing threat of adversarial anti-access/area-denial (A2/AD) systems, particularly in contested environments like the Indo-Pacific. Furthermore, the Stingray serves as the vital pathfinder for integrating autonomous drones into the high-pressure, complex environment of carrier flight decks. The lessons learned from the MQ-25A’s deployment will inevitably shape the future of collaborative combat aircraft (CCA) and the broader integration of unmanned systems across the U.S. military.
Frequently Asked Questions
- What is Milestone C?
Milestone C is a critical defense acquisition checkpoint that authorizes a program to transition from the Engineering and Manufacturing Development (EMD) phase into Low-Rate Initial Production (LRIP) and eventual deployment. - What engine powers the MQ-25A Stingray?
The aircraft is powered by a single Rolls-Royce AE 3007N engine, which utilizes a high-bypass-ratio design for fuel efficiency and long endurance. - How much fuel can the MQ-25A offload?
The Stingray is designed to offload up to 15,000 pounds of fuel at a distance of 500 nautical miles from the carrier. - How many MQ-25A aircraft does the Navy plan to buy?
The Navy expects to procure a total fleet of 72 aircraft, with the total program cost estimated at approximately $13 billion.
Sources
Photo Credit: U.S. Navy
Defense & Military
L3Harris OA-1K Skyraider II Operational and Internationally Available
L3Harris announces the OA-1K Skyraider II light attack ISR aircraft, featuring modular systems and cost-efficient operations for U.S. and allied forces.
This article is based on an official press release from L3Harris Technologies.
On May 20, 2026, L3Harris Technologies announced the operational readiness and international availability of its modular light attack and intelligence, surveillance, and reconnaissance (ISR) Military-Aircraft. Built upon the rugged foundation of the Air Tractor AT-802 crop duster, the platform is being fielded in two distinct variants: the OA-1K Skyraider II for the U.S. Air Force Special Operations Command (AFSOC) and the SKY RAIDER II INTERNATIONAL for allied nations.
According to the official press release, the aircraft is designed to deliver persistent, low-cost airpower in austere environments. By integrating advanced modular systems like the “Red Wolf” standoff cruise missile and “Green Wolf” electronic warfare suites, L3Harris aims to provide a highly adaptable platform for modern irregular warfare and counter-terrorism operations.
From Crop Duster to Special Operations Workhorse
The Armed Overwatch Program
The OA-1K Skyraider II originates from U.S. Special Operations Command’s (SOCOM) “Armed Overwatch” program. Awarded in 2022 as a $3 billion initiative, the program sought a cost-effective, crewed aircraft to replace the aging U-28A Draco fleet. The primary objective was to secure a platform capable of close air support, precision strike, and armed ISR in permissive, low-threat environments.
To meet these requirements, L3Harris utilized the Air Tractor AT-802U airframe, a civilian aircraft renowned for agricultural crop dusting and aerial firefighting. As noted in the company’s release, the airframe was selected for its extreme ruggedness, having accumulated over 1.6 million flight hours in harsh conditions. In early 2025, the U.S. military officially designated the aircraft the OA-1K “Skyraider II,” a nod to the legendary Douglas A-1 Skyraider that provided close air support during the Korean and Vietnam Wars.
Capabilities and Modular Integrations
The “Wolf Pack” System
The Skyraider II boasts significant endurance and payload capacities. According to L3Harris, the aircraft provides five to eight hours of persistent surveillance and strike capability with a 250-nautical-mile combat radius. It is equipped with up to 11 hardpoints, allowing it to carry a 6,000-pound combat loadout that includes AGM-114 Hellfire missiles, AGR-20 APKWS laser-guided rockets, and GBU-12 laser-guided bombs.
Furthermore, the aircraft features Short Takeoff and Landing (STOL) capabilities. It can operate from unpaved dirt runways or highways, requiring roughly half the distance of comparable medium-altitude ISR platforms. AFSOC is also testing the aircraft’s rapid deployability, ensuring it can be disassembled, loaded into a C-17 or C-5 cargo plane, and reassembled for combat within hours.
L3Harris heavily emphasizes the aircraft’s modular open systems architecture. This includes the “Red Wolf” kinetic strike system, a low-cost miniature cruise missile providing a standoff strike capability of over 200 nautical miles, and the “Green Wolf” electronic warfare system for detection and jamming. The platform also integrates WESCAM MX-Series electro-optical/infrared sensors for high-definition surveillance and laser designation.
“Our customers demand a lean, agile aircraft that can fly, take off and land anywhere, anytime, outfitted with a wide range of payloads… Bringing together Red Wolf and Sky Warden demonstrates the rapid reconfiguration and customization of key L3Harris capabilities,” stated Jason Lambert, President of ISR at L3Harris, in the press release.
Strategic Value and Cost Efficiency
Shifting the Financial Paradigm
A primary driver behind the adoption of the Skyraider II is its extreme cost efficiency. L3Harris advertises the operating cost at under $1,000 per flight hour. Even when fully burdened, AFSOC officials cite a cost of roughly $2,500 per flying hour. This stands in stark contrast to traditional fighter jets like the F-16, which cost between $22,000 and $27,000 per hour to operate.
“The OA-1K is one of the most affordable AFSOC platforms, which then frees up higher-end assets that are more costly, for other mission sets around the world… With rapid disassembly and reassembly, OA-1K can be loaded into mobility aircraft like a C-5 or C-17 for rapid worldwide deployment,” noted Lt. Col. Robert Wilson, AFSOC Armed Overwatch Requirements Branch Chief.
“Skyraider II represents not just a new platform, but a modular solution to our national security needs… It will redefine how we approach joint campaigning, crisis response and the evolving landscape of modern warfare,” added Lt. Gen. Michael Conley, Commander of AFSOC.
Production and Global Proliferation
Current Deliveries and Export Potential
As of the SOF Week conference in May 2026, L3Harris has delivered 18 OA-1K aircraft to AFSOC out of a contracted 45. Production is currently advancing at a rate of roughly one aircraft per month at the company’s Waco, Texas facility. AFSOC is targeting the fourth quarter of 2027 for the aircraft’s first combat deployment.
Internationally, L3Harris is actively marketing the SKY RAIDER II INTERNATIONAL variant. The company has secured export license approvals for more than 20 countries, pitching the $25 million aircraft to nations in Africa, the Middle East, South America, and Eastern Europe for border security, maritime patrol, and counter-drone operations.
AirPro News analysis
We observe a fascinating irony in the Armed Overwatch program: the U.S. military is effectively converting a civilian crop duster into a highly lethal, sensor-packed warplane to save billions of dollars. By integrating the “Red Wolf” cruise missile, L3Harris is transforming a slow-moving propeller plane into a long-range strike platform. This blurs the traditional lines between light attack aircraft and high-end bombers. Furthermore, the global proliferation of the SKY RAIDER II INTERNATIONAL could significantly alter the balance of power in smaller regional conflicts, granting allied nations access to U.S. special operations-tier airpower at a fraction of the cost of a modern fighter jet.
Frequently Asked Questions
What is the OA-1K Skyraider II based on?
It is a heavily militarized version of the Air Tractor AT-802U, an aircraft traditionally used for crop dusting and aerial firefighting.
How much does it cost to operate?
L3Harris states it costs under $1,000 per flight hour, with AFSOC citing a fully burdened cost of roughly $2,500 per hour. This is significantly cheaper than traditional fighter jets.
What is the “Red Wolf” system?
It is a low-cost miniature cruise missile that gives the aircraft a standoff strike capability of over 200 nautical miles, allowing it to engage targets from a safe distance.
Sources
Photo Credit: L3Harris Technologies
Defense & Military
Canadian Forces Snowbirds Retire CT-114 Tutors After 2026 Season
The Snowbirds will retire their CT-114 Tutor jets after 2026, transitioning to CT-157 Siskin II turboprops with a 4-6 year operational gap.
The Canadian Forces Snowbirds will be grounded following their 2026 season, and will not return to the skies until the early 2030s, according to reporting by CBC News. The iconic military aerobatic flight demonstration team is officially retiring its aging fleet of CT-114 Tutor jets after decades of service.
Defence Minister David McGuinty announced the grounding on May 19, 2026, at 15 Wing Moose Jaw in Saskatchewan. The Royal Canadian Air Force (RCAF) plans to replace the legacy jets with the CT-157 Siskin II, a turboprop aircraft. This transition will create an operational gap of four to six years where Canada will be without an active Air-Forces aerobatic demonstration team.
The 2026 season will serve as a farewell tour for the historic Tutor jets. According to the provided research report, the final season will feature 27 shows and flybys across Canada and the United States, culminating in a final planned performance in Moose Jaw this fall.
The End of the CT-114 Tutor Era
A Legacy in the Skies
The CT-114 Tutor has been the exclusive Commercial-Aircraft of the 431 Air Demonstration Squadron since the team’s formation in 1971. Originally ordered by the military in 1961 as training aircraft, the jets began their demonstration career in 1967. Over the decades, the Tutors have performed an estimated 2,700 times for well over 140 million people across North-America, according to historical data cited in the research report.
However, maintaining the mid-1960s airframes has become an insurmountable challenge. Of the 191 Tutors originally ordered, only about 26 are believed to remain in the RCAF’s inventory or in storage today.
Accelerated Retirement Timeline
Military officials and aviation experts have warned for years that the Tutors were operating beyond their intended lifespan. In 2020, the RCAF initiated a life-extension program designed to keep the jets flying until 2030. According to CBC News, RCAF Commander Lt.-Gen. Jamie Speiser-Blanchet explained that while most upgrades were delivered, recent feasibility studies revealed severe age-related engineering challenges. These technical realities forced the military to move the retirement timeline forward from 2030 to 2027.
Transitioning to the CT-157 Siskin II
Procurement Strategy
To replace the aging Tutors, the Department of National Defence (DND) will procure the CT-157 Siskin II, which is the Canadian designation for the Swiss-made Pilatus PC-21 turboprop. The Siskin II is already on order for the RCAF’s Future Aircrew Training (FAcT) program. The government intends to negotiate an add-on to this existing contract to acquire the additional aircraft needed for the Snowbirds.
The Jet vs. Turboprop Debate
The shift from a classic jet to a modern turboprop represents a fundamental change in aircraft capabilities. The research report notes that the Tutor boasts a top speed of approximately 480 knots, whereas the Siskin II tops out at around 320 knots.
Aviation experts and former Snowbird pilots have expressed reservations about this transition, arguing that the significant drop in top speed and the visual and auditory differences of a propeller plane will alter the dynamic of the air show. In response to these concerns, the DND stated that modern turboprop trainers like the Siskin II are highly capable and aerobatic-rated. The department noted that the team’s future choreography will be specifically redesigned to highlight the new aircraft’s unique strengths.
Political and Local Reactions
Government and Opposition Responses
The multi-year grounding has sparked political debate regarding long-term defense spending and asset management. Prime Minister Mark Carney addressed the issue during an event in Quebec, emphasizing the necessity of the transition.
“I inherited a situation where the planes literally had come to the end of their lives.”
According to CBC News, Carney added that the Snowbirds remain a source of national pride and will resume operations once the new planes arrive. Meanwhile, Conservative opposition members have criticized the lengthy service gap, labeling the news “heartbreaking” and questioning whether the government could have compressed the timeline by accelerating the FAcT contract.
Impact on Moose Jaw
Despite the temporary loss of the airshows, the squadron will permanently remain based at 15 Wing Moose Jaw. Local officials and Tourism Moose Jaw have expressed cautious optimism. While the grounding is a blow to local tourism, the confirmation that the squadron and the broader pilot-training mission will remain at the base preserves the city’s long-term aviation identity.
AirPro News analysis
At AirPro News, we observe that the four-to-six-year operational gap for the Snowbirds underscores persistent, systemic challenges within Canadian military procurement. Transitioning a national demonstration team from a legacy jet to a turboprop platform is a pragmatic, cost-effective solution that aligns with modern training pipelines, but it carries inherent public relations risks.
The success of the Snowbirds’ return in the early 2030s will heavily depend on how effectively the RCAF can rebrand the team’s choreography to suit the Pilatus PC-21’s flight envelope. While the visceral thrill and roar of a jet flyby will be lost, the agility of a modern turboprop could introduce tighter, more technical aerobatic maneuvers that appeal to a new generation of airshow audiences.
Frequently Asked Questions
- When will the Snowbirds stop flying the CT-114 Tutor?
The Snowbirds will ground the CT-114 Tutor following the conclusion of their 2026 farewell season. - What aircraft will replace the Tutor?
The RCAF will replace the Tutor with the CT-157 Siskin II, a turboprop aircraft based on the Pilatus PC-21. - When will the Snowbirds return to airshows?
The team is projected to return to active demonstration flying in the early 2030s once the new aircraft are delivered and crews are trained. - Will the Snowbirds leave Moose Jaw?
No. The squadron will permanently remain based at 15 Wing Moose Jaw in Saskatchewan.
Sources: CBC News
Photo Credit: La Presse canadienne – Patrick Doyle
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