Capabilities

Deep Engineering Capability for Mission-Driven UAV Programs.

Eight integrated capabilities. Every one of them in-house. No capability is a service layer; each is a core engineering discipline practised by the team that designed and flew the platforms it has been used on.

What We Do.

The Full Stack of Unmanned Aerospace Engineering.

Eight integrated capabilities. One team. No handoffs.

01

Simulate

CFD · FEA · Digital Twin · Multiphysics

02

Design

Aerostructures · Propulsion · Systems Architecture

03

Build

Composite Fab · CNC · Assembly · Integration

04

Fly

Autopilot · GCS · Flight Validation · Endurance Testing

05

Integrate

Payload · EO/IR · Lidar · Comms · Agricultural Modules

06

Defend

Counter-UAV · Anti-Drone · Ballistic Modelling · Hypersonic Analysis

07

Scale

Rapid Prototyping → Repeatable Manufacturing

08

Partner

Defence Programs · Custom Engineering · Long-Term R&D

01 / Simulate First

The Platform Flies Virtually Before It Flies Physically.

We deploy Computational Fluid Dynamics, Finite Element Analysis, and coupled multiphysics simulation to model aerodynamic behaviour, structural loads, thermal gradients, blast propagation, and propulsion performance before a single gram of composite fibre is laid.

Applications include supersonic and hypersonic aerodynamics, internal and external ballistics, sabot and petal separation in supersonic flow, detonation wave front modelling, aero-thermal loading, anti-drone interceptor stability, UAV aerodynamic optimisation, propeller wake analysis, payload bay thermal management, and structural integrity under extreme G-loading.

Proof Point: 30-50% reduction in physical prototype iterations. Documented. Delivered.

02

Designed Around the Mission, Not the Catalogue.

End-to-end development of fixed-wing, VTOL, hybrid, tethered, and special-mission UAV platforms, from aerostructural concept and propulsion architecture through flight control system design and mission system layout.

Every platform specification begins with the operational requirement, not a pre-existing airframe template. We have designed platforms for world-record endurance, swarm operations, agricultural spraying, surveillance, and air force demonstrations.

03

Light Enough to Fly Long. Strong Enough to Fly Hard.

Design and fabrication of lightweight, high-strength airframe structures using carbon fibre, Kevlar, and fibreglass, with performance-driven aerostructural principles and validated stress analysis.

Our composite manufacturing experience includes fuel tanks, structural frames, wing skins, and payload enclosures built to aerospace workmanship standards. Structural designs are verified by FEA before build, and physically tested after.

04

Electric, Hybrid, IC Engine. Whichever the Mission Demands.

Engineering support for electric multirotor propulsion, IC-engine fixed-wing and hybrid-VTOL platforms, tethered continuous-power systems, and hybrid-electric architectures.

Our team has designed, built, and flown IC-engine UAVs carrying 1+ kg payloads on 3+ hour missions, and built the hybrid multirotor UAV that set the FAI world endurance record. We engineer propulsion for the mission profile, not the other way around.

05

The Sensor Only Matters if the Platform Can Carry It Properly.

Seamless integration of EO/IR imaging systems, precision lighting arrays, stabilised gimbals, lidar, multi-spectral sensors, agricultural spraying modules, communications relay payloads, and custom mission hardware.

Integration means more than bolting a sensor to an airframe. It means accounting for CG shift, thermal management, vibration isolation, power draw, and data link architecture before the payload is mounted.

06

From Manual Pilot to Mission Autonomy.

Autopilot integration, Ground Control Station configuration, mission planning software, waypoint programming, and autonomous behaviour implementation.

Our team has developed and operated UAV swarm demonstrations for the Indian Air Force and built autonomous weather monitoring platforms for university research programs. We configure autonomy for the operational environment, not just for a demo.

07

Nothing Flies Until It Has Earned the Right to Fly.

Structured pre-flight validation protocols cover ground vibration testing, subsystem performance verification, structural load assessment, fuel and power system checks, and flight-readiness review.

For defence programs, validation connects simulation evidence, design audit documentation, certification pathways, and technology-transfer dossiers.

08

If It Has Not Been Built Before, That Is Why You Are Talking to Us.

Collaborative development programs for defence establishments, research institutions, and enterprise clients requiring bespoke UAV systems, counter-UAV analysis, special-mission platforms, or long-term technology partnerships.

Program structures include turnkey simulation support, collaborative R&D with DRDO or private OEMs, and long-term innovation partnerships.

Mission-ready systems

The next generation of Indian aerial systems starts here.

Talk to the engineering team or request an investor brief for confidential program discussions.