Systems Engineered. Solutions Verified.
Aerospace Systems — Designed for Critical Missions

THE INTERCEPTOR
FOR MODERN THREATS. Built to
Perform When
It Matters.

Autonomous counter-UAS interceptors that detect, track, and neutralize hostile aerial threats in a fraction of the time and at a fraction of the cost of legacy air-defense systems.

SKAR Aerospace
About SKAR Aerospace

Sovereign Capability
in Air Defense Engineering.

SKAR Aerospace is a vertically integrated aerospace company that develops complete flight systems. We own the full chain.

Our systems are purpose-built for high-consequence missions where reliability is non-negotiable. Every design is simulation-validated, every component is traceable, and every vehicle is integrated under one roof.

We exist to deliver assured aerospace capability — rapidly, domestically, and without compromise.

Vertical Integration
Every subsystem designed, built, and tested in-house. No critical dependency on third parties.
Mission Assurance
Simulation-first development with full traceability from requirements to flight hardware.
Rapid Delivery
Compressed development timelines through concurrent engineering and agile hardware iteration.
Operational Readiness
Systems designed for field deployment — ruggedized, autonomous, and ready for austere conditions.
Product Family

Two Interceptors.
One Mobile Platform.

Purpose-built effectors for the full spectrum of air threats — from small commercial drones to cruise missiles.

vSHORAD · Point Defense

SKAR-V Block I

Kills UAS at 0.5 – 6 km range
Minimum Range 500 m
Maximum Range 6,000 m
Altitude 5,000 m
Max Speed Supersonic
Guidance INS + Active Radar Homing
Countermeasures Resistant to Countermeasures
Operation Mode Lock-On Before Launch [Fire-And-Forget]/
Radar Homing
Targets UAVs, loitering munitions, cruise missiles
SHORAD · Area Defense

SKAR-S Block I

Kills UAS + cruise missiles at 1 – 15 km range
Minimum Range 1000 m
Maximum Range 15,000 m
Altitude 8,000 m
Max Speed Supersonic
Guidance INS + Active Radar Homing
Countermeasures Resistant to Countermeasures
Operation Mode Radar Homing
Targets UAVs, loitering munitions, cruise missiles
System Architecture

Full Engagement Chain.
All Subsystems.
Any Platform.

From initial detection through terminal phase — every subsystem is designed, built, and integrated in-house. Autonomous operation. Closed-loop performance.

< 16 SECONDS
Detect
0 s
Targets inbound. Radar conducts autonomous search and early warning.
Track
2 s
4D radar spots hostile objects. Target locked and classified. Multi-sensor fusion builds threat picture.
Command
2.5 s
Fire authorized automatically. Effector selected, launch parameters computed.
Engage
2.75 s
Interceptor launches. Solid propulsion.
Guide
12 s
Onboard GNC with mid-course update and terminal homing to target.
Intercept
<16 s
HE warhead / kinetic hit destruction. BDA confirms neutralization or triggers re-engagement.
Detect & Track

Surveillance & Sensor Fusion

Multi-band sensor suite with 360° coverage. Autonomous search, multi-object tracking, automatic classification and IFF. Low false-alarm rates in contested electromagnetic environments.

Command & Engage

Fire Control & Propulsion

Integrated command layer with real-time fire solutions and multi-effector selection. High-performance solid propulsion with rapid ignition and platform-agnostic launch configurations.

Guide & Kill

GNC & Terminal Effect

Agile flight control with mid-course update and terminal guidance algorithms. Proximity or direct-hit mechanisms with post-engagement damage assessment and re-engagement loop.

Distributed Architecture

One Radar.
Multiple Launchers.
Any Platform.

A single sensor node commands the entire engagement — decoupling detection from launch and enabling truly distributed air defense across land, sea, and fixed sites.

The SKAR system is built around a centralized radar and command unit that connects to multiple independent launcher modules. Each launcher operates as a networked effector — receiving targeting data, managing its own readiness, and executing fire commands autonomously.

This architecture means a single radar investment can service an entire area defense with launchers distributed across different platforms and positions. Launchers can be added, relocated, or swapped without reconfiguring the sensor layer.

The result is a scalable, resilient defense topology — where losing a launcher doesn't mean losing coverage, and adding capacity doesn't require additional radars.

Radar / C2
Central sensor and command
Launchers
Independent effector modules
Platforms
Mobile, naval, stationary
1 Radar — N Launchers — Any Platform Mix
RADAR / C2 MOBILE Launcher A STATIONARY Launcher B NAVAL Launcher C
Platform Integration

Deployment Architecture.

System designed for integration across ground, naval, and fixed-site launch environments. Platform-agnostic by design.

REPOSITIONING VECTOR MULTI-POINT DEPLOYMENT
01 — Ground-Based

Mobile / Semi-Mobile

High-Mobility Vehicle Integration

Designed for installation on mobile ground platforms. Supports operation while stationary or in motion, depending on platform class and mission profile.

Designed for
  • High-mobility military trucks
  • Light tactical vehicles
  • Mobile ground platforms
Stationary and on-the-move launch capability depending on configuration.
R1 R2 COVERAGE RANGE / MARITIME DISTRIBUTED SURFACE NETWORK
02 — Naval

Ship / Unmanned Surface Platform

Maritime Launch Integration

Optimized for maritime environments, extended detection range, and naval air defense scenarios. Compatible with manned and unmanned surface platforms.

Designed for
  • Naval vessels
  • Unmanned surface vehicles (USVs)
  • Sea drone platforms
Stabilized for sea state operations with shipboard fire control integration.
24/7 PERSISTENT COVERAGE 360° OPERATIONAL DOME
03 — Fixed / Universal

Containerized / Stationary

Relocatable Infrastructure Defense

Containerized format enables both stationary installation and rapid relocatable deployment. Optimized for continuous operation and critical asset protection.

Designed for
  • High-priority military infrastructure
  • Critical civil infrastructure protection
  • 24/7 continuous operation
  • Rapid redeployment when required
Standard ISO container format for airlift, sealift, and road transport compatibility.
Key Parameters

Engineered Margins.

0
Peak Velocity
Performance
0
Rated Load
Lateral acceleration
0
Engagement Range
Mission envelope
0
In-House
Vertical integration
Development Process

Concept to Flight Readiness.

A disciplined, simulation-first process. We validate digitally, then build to print.

PHASE 01

Requirements & Architecture

Mission requirements capture, system architecture trade studies, interface definitions, and preliminary design review.

PHASE 02

Simulation & Analysis

High-fidelity CFD, structural FEA, trajectory modeling, internal ballistics, and thermal analysis. Every design validated before fabrication.

PHASE 03

Build & Integration

Composite layup, precision machining, electronics assembly, and full vehicle integration with hardware-in-the-loop verification.

PHASE 04

Test & Qualify

Static fire, vibration testing, systems validation, flight readiness review, and launch operations with live telemetry monitoring.

Engineering Stack

Tools & Methods.

Industrial-grade analysis tools, in-house simulation pipelines, and full-stack embedded development — backed by real credentials.

01

Computational Fluid Dynamics

RANS and transient external aerodynamics simulations, shock interaction modeling, and angle-of-attack characterization across subsonic through supersonic regimes.

02

Flight Dynamics & Trajectory

Full 6-DOF simulation with atmospheric models, motor thrust curves, aerodynamic databases, wind perturbation, and Monte Carlo dispersion for mission planning and range safety.

03

Structural & Thermal FEA

Composite structures, motor casings, and joints analyzed under combined mechanical, thermal, and vibroacoustic loading with full safety margin verification.

04

Guidance, Navigation & Control

Custom flight software with sensor fusion, state estimation, guidance algorithms, and encrypted telemetry protocols. Developed and verified in hardware-in-the-loop environments.

14

Peer-Reviewed Publications

Scopus-indexed research across propulsion, guidance algorithms, and composite structures.

<1 yr

Founding to Qualified Hardware

Full development cycle — from clean-sheet design through qualification testing.

8+ yr

Average Engineering Experience

International aerospace engineering team. Deep domain expertise in flight systems, propulsion, and embedded avionics.

EU

European Manufacturing & Integration

EU-based production facilities. NATO-aligned procurement path with European supply chain traceability.

Compliance & Standards
MIL-STD-810 MIL-STD-461 DO-178C ECSS NATO STANAG AS9100
Contact

Mission-critical systems
require mission-ready partners.

If you're exploring aerospace capability for government, institutional, or strategic applications — we should talk.

Get in Touch contact@skar-aerospace.com