BUILT FOR SPEED
Solving the decades-old challenge of stopped-rotor technology to deliver high-velocity transit without sacrificing hover endurance.
High-speed flight engineered for rapid, long-distance missions. High-speed transit is no longer bounded by fixed-wing launch constraints. Our platform bridges the performance gap between traditional rotorcraft and fixed-wing jets, moving critical payloads across vast distances in minutes, not hours.
BUILT TO STAY
• Extended hover endurance for persistent aerial operations.
• True operational dominance requires remaining on station. Built with high-efficiency rotor dynamics, Beni aircraft maintain stationary positions over severe environments without exhausting power reserves.
• Extended Station-Keeping Time
NO RUNWAY REQUIRED
• Vertical take-off and landing for ultimate operational flexibility.
• Launch from anywhere; land everywhere. Operating independently of runways, tarmac, or launch catapults, Beni platforms deploy directly from unpaved surfaces, ship decks, and confined zones.
• Zero Surface Footprint
Key Tech Features
Rapid movement overlong distances with fixed-wing efficiency
Take-off and landing without conventional runways
Remain airborne and hover over a designated location for extended missions
Innovative rotor system designed for efficient transition between hover and high-speed flight
Scalable platforms from 5 kg to 3,000 kg payload capacity
Advanced flight-control and mission-management systems for autonomous operations
The Future
THE HORIZON IS UNBOUNDED
Autonomous aerial dominance for the next generation.
We didn't just iterate on existing drone architectures. We solved an 80-year engineering challenge to build the physical foundation of future aviation.
Reach Us
+91-999-37-84929 (10am to 8pm)
A BREAKTHROUGH 8 DECADES IN THE MAKING
For nearly eight decades, aerospace engineers attempted to solve the flight mechanics of stopped-rotor transition. We made it possible. Our Single-Stopped-Rotor (SSR) architecture eliminates mechanical clutter—locking into position mid-flight to transition seamlessly from pure vertical hover to high-speed forward flight.
Our Tech Features
Single-Stopped-Rotor (SSR)
Unlocked stopped-rotor physics for high-efficiency transition and drag reduction.
Autonomous Flight Stack
Edge-computed trajectory planning, optimized for high-risk environmental factors.
Modular Payload Bay
Adaptable internal volume for specialized sensor suites and mission payloads.
Drone Development Timeline
From design and engine run to test flight
and production start.
Drone Development
Design, assembly and system integration are underway.
The company is building the drone platform and preparing flight systems.
July 20, 2026
First Engine Run ✓
Powertrain checks completed successfully during the first engine run.
April 2027
First Test Flight
The drone enters flight trials to validate stability, control and mission readiness.
April 2028
Production Start
Serial production begins as the programme moves toward operational deployment.
