UAVs & Aerospace

Network Infrastructure designed for flight

High-bandwidth, size and weight-optimized Ethernet networking infrastructure designed for UAVs, loitering munitions, and manned aerospace platforms.

High-bandwidth, size and weight-optimized Ethernet networking infrastructure designed for UAVs, loitering munitions, and manned aerospace platforms.

3D render of a Formula 1 racing car — BotBlox low-latency high-reliability networking for motorsport telemetry and data acquisition
3D render of a fixed-wing UAV — BotBlox mission-critical wired networking for unmanned aerial systems and aerospace platforms

Enabling high-speed IP networking to run on weight constrained air platforms.

Enabling high-speed IP networking to run on weight constrained air platforms.

Enabling high-speed IP networking to run on weight constrained air platforms.

The Shift to Airborne Ethernet

The Shift to Airborne Ethernet

Modern unmanned platforms generate more sensor data in a single mission than legacy avionics buses were ever designed to carry. ARINC 429, MIL-STD-1553, and CAN are too narrow and too slow for on-board AI, multi-camera ISR, and swarm mesh.

01

Industry leading SWaP

Every gram, watt, and cubic centimeter matters. BotBlox enables advanced networking and edge computing in ultra-compact, mission-ready hardware designed for size-constrained platforms.

02

Vibration Tolerant

Our boards are designed to operate with vibration and shock, with thousands of flight hours and tested to withstand decompression.

03

Altitude Tested

BotBlox products are engineered to operate reliably in the low-pressure environments encountered by modern UAVs. Products have been tested at altitudes of up to 40,000 feet.

HOW BOTBLOX FITS THE SYSTEM

HOW BOTBLOX FITS THE SYSTEM

Engineered for Flight

Engineered for Flight

Networking and compute wasn’t designed for flight. Steel enclosures, bulky connectors, and delicate power input - built for offices not airframes. Here’s why BotBlox does it differently.

01

Weight & Volume (SWaP)

UAV airframes budget payload in grams and cubic centimetres. Every component competes with fuel, optics and mission time.

Tiny connectors

Replacing bulky connectors while staying compliant with IEEE802.3 specification.

Ultra-dense layouts

Reduced power

02

Vibration & Shock

Airborne platforms face continuous vibration from rotors, turbines and airframe resonance — plus transient shock on launch, hard landing and ordnance release.

MIL-STD-810H qualified

90 g mechanical shock, 20 Hz–2 kHz random vibration profile

Position locking connector options

Tiny boards with mounting

03

Thermal & Power

UAV power budgets are tight and airflow is unreliable. A hot component steals range; a fan is one more failure mode at altitude.

Reduce power first

From selecting the most efficient DCDC regulators, to optimising firmware to reduce powre consumption, we optimise to reduce power consumption.

-45 °C to +85 °C operation

Fanless by design

USE CASE SPOTLIGHTS

USE CASE SPOTLIGHTS

Find your configuration.

Find your configuration.

Every airborne platform has different constraints. Here are the three most common UAV deployment patterns — and the BotBlox hardware that solves each one.

IN THE AIR

IN THE AIR

Not hobbyist. Millions of flight hours.

Not hobbyist. Millions of flight hours.

Empirical field use is the best proof. BotBlox hardware has been integrated into thousands of platforms over the past five years.

Mission Partnerships

BotBlox hardware routes the network inside Griffon Aerospace's Valiant, a Group 3 expeditionary VTOL UAS. The Rugged SOM and SwitchBlox Rugged separate onboard systems from the wireless link — full routing in a 1.5 W, MIL-STD-810H tested, flight-ready package.

OTHER APPLICATIONS

OTHER APPLICATIONS

Explore other application fields

Explore other application fields

The same hardware. Different environments. BotBlox networking and compute are deployed across six demanding platform types, each with its own constraints, each solved with the same engineering rigour.

BotBlox Boards are integrated into platforms operating across six application domains.

Each environment imposes different constraints on size, weight, vibration tolerance, and data throughput.