America’s Collaborative Combat Aircraft (CCA): The U.S. Air Force’s New Model for Autonomous Air Warfare
AeroMorning – John Smith – June 18, 2026
Introduction
The U.S. Air Force’s Collaborative Combat Aircraft (CCA) program represents a fundamental transformation in how airpower is generated, coordinated, and employed. Rather than replacing crewed fighters, the program introduces autonomous or semi-autonomous uncrewed aircraft designed to operate alongside platforms such as the F-35 Lightning II and the future F-47.
These aircraft are intended to act as loyal wingmen, extending sensor reach, increasing weapons capacity, and absorbing risk in highly contested environments. The objective is to increase combat mass without proportionally increasing cost or pilot workload.
What Is the CCA?
The Collaborative Combat Aircraft is a jet-powered uncrewed combat system designed for high-end peer conflict. Unlike traditional drones used primarily for surveillance or counterinsurgency missions, CCAs are built for operations in heavily contested airspace against advanced adversaries.
They are expected to perform roles including:
- air-to-air combat support
- strike missions
- electronic warfare
- intelligence, surveillance, and reconnaissance (ISR)
- decoy and missile-carrying operations
The system relies heavily on advanced autonomy software, allowing aircraft to execute missions with limited human input while remaining integrated into a broader distributed combat network.
The U.S. Air Force plans to field approximately 1,000 CCAs over time as part of its Next Generation Air Dominance (NGAD) ecosystem.
Prime Contractors: General Atomics and Anduril
Following a competitive development phase, the Air Force selected two aircraft for CCA Increment 1:
- General Atomics Aeronautical Systems – FQ-42A
- Anduril Industries – FQ-44A Fury
Both received fighter-style designations in 2025, marking the first time uncrewed systems were formally designated in the fighter category.
On June 17, 2026, the U.S. Air Force awarded production contracts to both companies, moving the program from prototype development into production.
The contracts confirm:
- FQ-42A produced by General Atomics
- FQ-44A Fury produced by Anduril Industries
Rather than selecting a single winner, the Air Force is deliberately maintaining two parallel aircraft suppliers. This approach increases production capacity, reduces industrial risk, and preserves long-term competition.
At least 150 aircraft are planned in the first production tranche, with significantly larger numbers expected in the following years.
Aircraft Strategy: Why There Is No Single Winner
Unlike traditional fighter acquisition programs, the CCA Increment 1 strategy does not aim to select a single aircraft manufacturer. Instead, the Air Force is pursuing a dual-vendor model:
- General Atomics Aeronautical Systems
- Anduril Industries
Both platforms are expected to remain in production and operational use. This ensures scalability, resilience, and sustained competition. However, this approach applies only to the aircraft layer of the system.
Autonomy Software Competition (The Brain of the System)
While the Air Force maintains two aircraft suppliers, it is pursuing a competitive downselect for autonomy software, which serves as the decision-making core of the system.
Three companies are currently competing:
- Anduril Industries
- Shield AI
- Collins Aerospace
This competition will be progressively narrowed through flight testing, simulation, and operational demonstrations. A final selection of a single primary autonomy provider is expected around 2027, aligned with Initial Operational Capability (IOC).
Open Architecture Philosophy
The CCA program is built on an open-architecture design that separates hardware from software, allowing rapid upgrades of autonomy capabilities without modifying the airframe.
The autonomy layer is responsible for:
- interpreting mission intent
- coordinating multiple CCAs
- managing tactical responses
- operating in degraded or denied communication environments
This makes software the most strategically critical component of the entire system.
Multi-Layer Coordination Architecture (CCA–Fighter–Cloud)
A key innovation of the CCA ecosystem is its distributed coordination model. Instead of relying on a single control link between pilot and drone, the system operates through three interacting layers.
a. Tactical Layer (Air-to-Air Network)
At the tactical level, CCAs and crewed fighters such as the F-35 and future F-47 exchange data directly in real time. This enables:
- formation control
- target sharing
- cooperative engagements
- distributed sensing within a combat bubble
This is the most immediate and time-sensitive layer of coordination.
b. Decision Layer (Onboard Autonomy)
Each platform contains its own autonomy system.
- CCAs execute onboard AI-driven tactical behaviors
- crewed fighters rely on mission computers and combat management systems that fuse sensor data, manage weapons employment, and support pilot decision-making
The pilot does not issue direct low-level commands; instead, they provide mission intent, which is translated into tactical actions by onboard systems. This allows CCAs to continue operating even in degraded communications environments.
c. Operational Layer (Combat Cloud / Network)
The so-called cloud is not a civilian computing system, but a secure military distributed combat network. It integrates:
- satellite intelligence
- airborne early warning aircraft
- ISR platforms
- multi-domain sensor fusion
This layer provides:
- global situational awareness
- mission planning inputs
- synchronization across multiple combat groups
However, it does not directly control aircraft in real time; it is an awareness and coordination layer, not an execution layer.
Full System Logic
In practice, the system operates as a resilient, distributed architecture where:
the cloud provides awareness,
the crewed fighter provides intent,
and the CCA executes tactically through onboard autonomy.
Key Concept
The pilot defines the objective; the integrated AI–network–CCA system determines how it is executed in real time.
NGAD Doctrine Simplified Model
The conceptual model used by the U.S. Air Force can be expressed as:
F-35 / F-47 = Mission commander (quarterback)
CCA = Sensors + Electronic warfare + Weapons nodes
AI + Network = Coordination and decision layer
Or in simplified form:
Pilot (F-35/F-47)
↓
Gives intent (mission goal)
↓
AI + Network + CCAs
↓
CCAs execute tactics autonomously
This structure enables:
- distributed sensing across multiple platforms
- coordinated multi-vehicle tactics
- resilience in contested electromagnetic environments
- scalable combat mass at lower cost
Entry Into Service
First prototypes flew in 2025, with both General Atomics and Anduril achieving early flight milestones.
Current expectations:
- initial operational capability around 2028–2030
- at least 150 aircraft in early production
- long-term expansion toward large-scale fleet deployment
This timeline aligns with the broader rollout of the F-47 and the NGAD family of systems.
Honeywell and the Industrial Ecosystem
The growing ecosystem includes suppliers such as Honeywell, which developed the Kestrel navigation system for autonomous aircraft.
Kestrel provides:
- 40% reduction in size and weight
- up to 80% improvement in navigation accuracy
- strong performance in GPS-denied environments
- enhanced resilience under electronic warfare conditions
These capabilities are essential for autonomous operations in contested airspace.
Strategic Significance
The CCA program represents a shift from platform-centric airpower to distributed system-centric air warfare.
Key advantages include:
- increased combat mass at lower cost
- improved survivability for pilots
- distributed sensing and targeting
- scalable electronic warfare capability
- higher operational resilience in contested regions
Conclusion
The Collaborative Combat Aircraft program is rapidly transitioning from concept to operational reality. With two aircraft manufacturers in production, a competitive autonomy software race underway, and a rapidly expanding industrial ecosystem, the U.S. Air Force is building a new model of air warfare.
The core architecture is now clear:
- two aircraft suppliers will remain in service
- one primary autonomy software provider may be selected around 2027
- combat execution will be distributed across humans, AI, and networked systems
This marks a fundamental evolution in air combat: not replacing pilots, but transforming them into commanders of autonomous combat systems.
