Canada is stepping decisively into the future of networked air warfare with the development of its first sovereign loyal wingman drone, a project designed to operate alongside next-generation fighter aircraft such as the F-35A. The initiative marks a significant shift in how the country approaches aerial combat capability, combining autonomous systems, artificial intelligence, and distributed sensor networks to extend the reach and survivability of manned aircraft.
The program, led by Ottawa-based defense technology firm Dominion Dynamics, centers on a new unmanned aircraft known as the Autonomous Collaborative Platform (ACP). With an initial $50 million investment, the company intends to design, simulate, and prototype an aircraft capable of integrating seamlessly with Canada’s emerging fleet of stealth fighters. Rather than functioning as a standalone drone, the ACP is conceived as a cooperative combat partner, flying in formation with crewed jets while performing specialized tasks that reduce risk to pilots and expand operational flexibility.
The concept reflects a broader transformation in military aviation where manned-unmanned teaming is becoming the dominant operational model. Instead of relying solely on high-value fighter aircraft to conduct all mission tasks, modern air forces increasingly distribute responsibilities across networks of aircraft, sensors, and autonomous systems. In this architecture, a pilot becomes a mission commander, directing multiple unmanned assets that can scout ahead, jam enemy radars, or carry additional weapons.
The Autonomous Collaborative Platform: Canada’s Entry Into Collaborative Combat Aircraft
The Autonomous Collaborative Platform (ACP) represents Canada’s first domestically designed Collaborative Combat Aircraft (CCA)—a category of unmanned systems developed specifically to operate alongside advanced fighters. These aircraft are often referred to as loyal wingmen, a term that captures their role as autonomous partners supporting a human pilot.
Dominion Dynamics intends the ACP to perform several mission profiles, ranging from persistent surveillance and electronic warfare to strike support and communications relay. By delegating these tasks to autonomous aircraft, fighter pilots can concentrate on command decisions while the drones carry out complex tactical maneuvers.
What distinguishes the ACP concept is its modular design philosophy. The drone is envisioned as a flexible platform capable of carrying different payloads depending on mission requirements. In one configuration it could function as a sensor platform, extending the detection range of a formation. In another, it could carry precision weapons, effectively increasing the total firepower of the flight group. Alternatively, electronic warfare equipment could allow the aircraft to jam enemy radar systems or create deceptive signals designed to confuse air defense networks.
This modular architecture mirrors a strategy already common in the satellite industry, where a standardized platform can host multiple payload types. Applying that concept to combat drones allows rapid adaptation to new threats without redesigning the entire aircraft.
A Strategic Investment in Sovereign Defense Technology
Dominion Dynamics’ decision to invest heavily in the ACP program reflects Canada’s growing emphasis on sovereign defense capabilities. The company was established with the goal of developing technologies specifically tailored to the country’s unique operational environment, particularly the vast and remote regions of the Arctic.
Canada’s geography presents distinct challenges for military operations. Enormous distances, limited communications infrastructure, and extreme cold create conditions that strain conventional aircraft systems. Autonomous platforms designed for these environments must operate reliably across long ranges and harsh climates, often with limited human support.
Dominion Dynamics has already been developing technologies aimed at solving these problems. Among its most ambitious projects is a persistent sensing architecture designed to integrate data from land-based sensors, maritime surveillance systems, airborne platforms, and satellites. The objective is to create a continuous stream of intelligence covering remote regions where traditional radar networks are sparse.
Within this system, autonomous aircraft like the ACP would function as mobile sensor nodes, collecting information and transmitting it across a distributed network. Instead of relying on a single centralized radar site, surveillance becomes a layered ecosystem of sensors, dramatically increasing resilience against disruption or attack.
Artificial Intelligence at the Core of Loyal Wingman Operations
The effectiveness of loyal wingman drones depends heavily on artificial intelligence and automated flight control systems. These technologies enable unmanned aircraft to navigate independently, maintain formation with manned fighters, and execute coordinated maneuvers without constant human direction.
In practical terms, AI allows the aircraft to handle complex tasks such as autonomous navigation, obstacle avoidance, and real-time threat detection. Sensors onboard the drone continuously collect data, which onboard processors analyze to determine the best course of action. When necessary, the system relays information back to the pilot or command network for approval.
Human operators remain firmly in control of mission decisions. However, the autonomy built into these aircraft reduces the workload on pilots who might otherwise need to manage every movement of multiple drones during combat operations.
In advanced scenarios, a single fighter pilot could command several autonomous aircraft simultaneously, directing them to perform reconnaissance sweeps, launch weapons, or create electronic countermeasures. The result is a formation that behaves less like a group of individual aircraft and more like a coordinated combat ecosystem.
Prototype Development and Engineering Roadmap
The ACP program is structured around a phased development approach that emphasizes modeling, simulation, and iterative testing. Dominion Dynamics plans to begin with scaled prototypes, allowing engineers to evaluate aerodynamic performance, autonomous flight algorithms, and mission software before moving to a full-size aircraft.
This approach significantly reduces risk. By validating systems in smaller demonstrators, developers can refine both hardware and software long before committing to expensive full-scale production.
The projected timeline suggests that a full-scale prototype could emerge within 24 to 36 months. During this period, engineers will test flight control systems, communication links, and AI algorithms designed to manage formation flight with crewed aircraft.
Development work will take place at Dominion Dynamics’ new facility in Kanata, Ontario, a region already recognized as one of Canada’s most important technology hubs. As the program expands, the company expects its workforce to grow to roughly 100 specialists, including aerospace engineers, software developers, and systems integration experts.
Integration With Canada’s Future F-35 Fleet
The timing of the ACP project aligns closely with Canada’s ongoing modernization of its fighter fleet through the Future Fighter Capability Project. The Royal Canadian Air Force has committed to purchasing 88 Lockheed Martin F-35A stealth fighters, replacing the aging CF-18 Hornet aircraft that have protected Canadian airspace for decades.
Canada joined the F-35 program as an industrial partner in 2002, giving domestic companies the opportunity to compete for contracts within the global supply chain supporting the aircraft. After a lengthy competition that included the Saab Gripen E, the F-35A was officially selected in 2023.
Initial aircraft deliveries are scheduled to begin in 2026, when Canadian pilots will start training in the United States. The first operational jets are expected to arrive in Canada by 2028, with the entire fleet delivered by 2032.
The F-35’s defining strength lies in its sensor fusion architecture. Advanced radar, electro-optical systems, and secure data links combine to provide pilots with an integrated picture of the battlespace. Loyal wingman drones such as the ACP could plug directly into this network, dramatically extending the range of the aircraft’s sensors and weapons.
For example, an autonomous aircraft could fly ahead of the fighter formation, using its sensors to detect threats without exposing the crewed aircraft to risk. If hostile defenses are identified, the drone could deploy electronic countermeasures or even launch weapons while the pilot remains safely outside the danger zone.
Distributed Air Combat and the Future of Warfare
The development of loyal wingman systems signals a broader transformation in how air forces conceive of combat power. Traditional fighter aircraft were designed as self-contained platforms, carrying sensors, weapons, and pilots within a single airframe. Modern military strategy is shifting toward distributed systems, where multiple platforms collaborate through digital networks.
This philosophy recognizes that future conflicts will likely involve contested electromagnetic environments, sophisticated missile defenses, and rapidly evolving threats. By distributing sensors and weapons across numerous platforms—including autonomous drones—militaries gain flexibility and resilience.
Loyal wingman drones are particularly attractive because they are smaller and less expensive than advanced fighters. Losing one in combat does not carry the same strategic or financial impact as losing a crewed aircraft. As a result, commanders can deploy them in higher-risk missions such as penetrating enemy air defenses or conducting decoy operations.
In some scenarios, drones may deliberately expose themselves to trigger enemy radar systems. Once those radars activate, stealth fighters or other drones can identify and target the defenses, creating openings for follow-on operations.
Arctic Security and Strategic Surveillance
Canada’s geographic reality ensures that Arctic security remains central to its defense planning. The northern approaches to the continent represent one of the most strategically sensitive regions on Earth, particularly as melting sea ice opens new maritime routes and increases geopolitical interest in the region.
Autonomous aircraft capable of long-endurance operations could transform surveillance of these vast territories. Rather than relying solely on manned patrol flights, fleets of drones could maintain persistent monitoring of northern airspace and maritime corridors.
Dominion Dynamics has already tested elements of its sensor architecture alongside Canadian Rangers, gathering data on how equipment performs in extreme cold conditions. This experience is crucial because conventional aircraft electronics and batteries often struggle in Arctic climates.
An autonomous system specifically designed for such environments could provide early warning against missile threats, unauthorized aircraft, or suspicious maritime activity approaching North America through the polar region.
Canada’s Role in the Global Loyal Wingman Race
Canada’s ACP initiative places it within a rapidly expanding global race to develop collaborative combat aircraft. Several allied nations are pursuing similar technologies as they prepare for the next generation of aerial warfare.
The United States is advancing its Next Generation Air Dominance ecosystem, which includes multiple autonomous aircraft designs intended to accompany future fighter jets. Australia’s Boeing MQ-28 Ghost Bat has already demonstrated loyal wingman operations, while European nations are integrating unmanned aircraft into projects such as the Future Combat Air System.
Canada’s approach differs slightly because it emphasizes sovereign development combined with interoperability with allied systems. By building its own platform, the country retains control over mission software, sensors, and operational concepts while still ensuring compatibility with NATO and Five Eyes partners.
This balance between independence and collaboration may prove strategically valuable. It allows Canada to tailor technology to its specific operational needs while maintaining seamless integration with allied forces during joint missions.
A New Chapter in Canadian Aerospace Innovation
The creation of the Autonomous Collaborative Platform marks an important milestone in Canada’s defense technology sector. It signals a recognition that future air combat will be defined not just by advanced fighters but by ecosystems of connected aircraft, sensors, and autonomous systems.
For Dominion Dynamics, the ACP project represents more than a single aircraft design. The company envisions an expanding family of modular autonomous platforms that can evolve as new missions emerge. Surveillance, electronic warfare, communications relay, and strike support could all be handled by variants of a common drone architecture.
As Canada prepares to field its fleet of F-35 stealth fighters, the emergence of a domestically developed loyal wingman system could dramatically amplify the effectiveness of those aircraft. Instead of operating alone, each fighter may eventually command a small constellation of autonomous partners, transforming the way air power is projected across vast distances.
The age of the lone fighter pilot dominating the skies is giving way to a more complex reality—one where human judgment, artificial intelligence, and autonomous aircraft operate together in tightly integrated networks. Canada’s ACP program suggests the country intends to be an active participant in shaping that future.
