We are not just an aviation manufacturer — we are a deep-tech startup determined to fundamentally transform an entire industry.
Our mission is to create modern, sustainable, and highly efficient air transportation solutions that match the needs of today’s world.
— Redefining the Future of Tiltrotor Aviation
Nasirov Aviation Corporation is among a very limited group of global manufacturers developing next-generation tiltrotor aircraft.
Today, we proudly stand as the 4th country in the world to design and build aircraft in the tiltrotor class — following only the United States, Italy, and China.
But we are not replicating the past.
We are reinventing tiltrotor aviation for the future.
Beyond Traditional Tiltrotors
Conventional tiltrotors were designed in an era dominated by mechanical complexity, heavy gearboxes, and fossil-fuel dependency.
At Nasirov Aviation, we are building a new generation of tiltrotors, combining:
- High-power axial-flux electric motors
- Hybrid-electric architectures
- Hydrogen fuel cell propulsion systems
- Advanced digital flight control and redundancy
This approach allows us to deliver higher efficiency, lower emissions, superior reliability, and unmatched mission flexibility.
A New Category Between eVTOL and Conventional Aviation
Urban Air Mobility (UAM) eVTOLs are optimized for short-range, low-payload missions.
Conventional aircraft require runways and lack vertical lift capability.
Our tiltrotor platforms operate where neither can.
Nasirov Aviation provides solutions for mission profiles unreachable by traditional eVTOLs and conventional aviation, including:
- Remote and infrastructure-limited regions
- High-speed long-range vertical operations
- Heavy payloads with runway-independent deployment
This creates an entirely new operational category.
Mission-Critical Applications
Our aircraft are purpose-built for high-value, high-reliability missions:
🛩 Special Mission Operations
Rapid deployment, long endurance, and vertical access in complex environments.
🚑 Air Ambulance & Medical Evacuation
High-speed patient transport over long distances without runway dependency.
🛡 Defense & Government Operations
Strategic mobility, logistics support, surveillance, and rapid response missions.
📦 Cargo & Logistics
Medium-to-heavy cargo transport to regions unreachable by conventional aircraft.
Two Advanced Powertrain Variants
Hydrogen Fuel Cell Tiltrotor
- Max Takeoff: 8 tons
- Range: 1,500 km
- Zero-emission cruise capability
- Optimized for sustainability-driven missions and future-proof operations
Hybrid Electric Tiltrotor
- Max Takeoff: 13 tons
- Range: 2,000 km
- Combines battery systems with a high-power turbogenerator
- Designed for extended range, high endurance, and operational resilience
Why Nasirov Aviation
- One of the world’s few tiltrotor manufacturers
- First-mover in hydrogen and hybrid tiltrotor integration
- Focused on real operational gaps, not conceptual mobility
- Designed for certification, scalability, and global deployment
- Built for missions where failure is not an option
Engineering the Impossible
At Nasirov Aviation Corporation, we believe the future of aviation is not defined by short hops over cities —
it is defined by reach, reliability, and responsibility.
We are building aircraft that connect the unreachable,
save lives, support national security, and reshape how the world moves vertically.
SkyLine Tiltrotor – Unique Selling Points Compared to Others
- Green Propulsion:
Hydrogen fuel cell and hybrid-electric options — not available in other tiltrotors. - Flexible Max Takeoff & Mission:
8–13 t adaptable for both civil and special missions. - Range Efficiency:
- Hydrogen: 1,500 km
- Hybrid: 2,000 km
- Advanced Electric Motors:
Axial flux motors + digital FBW → high efficiency and fast response. - Operational Niche:
- UAM areas inaccessible to conventional eVTOLs
- Regions unreachable by traditional aviation
SAFETY
Why Safety Limits Matter in Next-Generation Aviation
The future of aviation is not only about speed, range, or advanced technology.
It is about understanding the physical limits of flight — and designing systems that remain safe even at the edge of those limits.
Traditional tiltrotors demonstrated the potential of vertical takeoff and high-speed flight.
But they also revealed several critical challenges:
• Dutch Roll oscillations
• Gyroscopic forces generated by large rotating proprotors
• Tip Mach limitations at high speed
• Complex mechanical transmission systems
• High pilot workload during transition flight
At high speed, even small instabilities can rapidly escalate into dangerous situations.
For example:
🔹 As rotor RPM increases, blade tip speed approaches the speed of sound (Mach limit).
This can create shockwaves, vibration, drag increase, and structural stress.
🔹 Large rotating proprotors generate powerful gyroscopic forces.
If yaw, roll, or tilt movements occur too aggressively, these forces can destabilize the aircraft.
That is why next-generation tiltrotors must intelligently limit and manage these parameters in real time.
Our Safety-Driven Architecture
At NAC SkyLine, safety is not something added later.
It is built directly into the architecture itself.
Our approach includes:
✅ Fly-by-Wire flight control systems
✅ AI-assisted stability management
✅ Redundant electric dual actuators
✅ Real-time RPM optimization
✅ Tilt-rate limiting for gyroscopic protection
✅ Active vibration control systems
✅ Multi-motor distributed electric propulsion (Axial Flux)
✅ Fail-operational redundancy architecture
✅ Carbon composite structures
• absorb vibration
• reduce resonance
• minimize structural fatigue
Instead of relying only on pilot reaction, the aircraft continuously monitors:
• Rotor RPM
• Tip Mach
• Yaw rate
• Roll rate
• Tilt rate
• Structural vibration
In addition, AI assistance is not intended to fully replace the pilot, but to help prevent critical risks, including:
• reducing pilot fatigue
• assisting in low-visibility conditions
• maintaining flight stability
The system automatically adjusts flight behavior before instability develops.
Intelligent Limits for Safer Flight
Modern aerospace engineering is not about eliminating limits.
It is about understanding limits, predicting risks, and controlling them intelligently.
Because in advanced tiltrotor aviation:
Safety is not just a feature.
Safety is the architecture itself.
These electric-based solutions enable ultra-fast signal response and allow potential risks to be identified before they become critical.