TRL11

A Multi-Camera Network for CubeSat Deployment

A Multi-Camera Network for CubeSat Deployment

5 min read

BOTBLOX SYSTEMS

MISSION

Build a compact multi-camera imaging network for a CubeSat dispenser aboard Launcher Space's Orbiter transfer vehicle, recording every satellite deployment before transitioning to Earth-observation imaging.

BotBlox Systems logo

TRL11

THE COMPANY

TRL11 develops space-qualified video and imaging systems for launch vehicles and spacecraft. Their digital video recorders and multi-camera platforms capture critical mission events like satellite deployment and support Earth-observation imaging.

Trillium Engineering logo
BotBlox logo icon

Resume

How TRL11 used the BotBlox SwitchBlox Rugged to network four IP cameras, an NVIDIA Jetson, and a flight computer in a CubeSat deployment imaging system in orbit.

How TRL11 used the BotBlox SwitchBlox Rugged to network four IP cameras, an NVIDIA Jetson, and a flight computer in a CubeSat deployment imaging system in orbit.

Watching Satellites Leave Orbit

Imagine watching satellites deploy from space. That’s exactly what TRL11 set out to build.

The company developed a digital video recorder and multi-camera imaging system for integration into a CubeSat dispenser aboard Launcher Space’s Orbiter transfer vehicle. The system captured every stage of deployment, giving engineers visual confirmation that each satellite had successfully separated before transitioning to Earth-observation duties later in the mission.

The same hardware wasn’t limited to deployment. Once the CubeSats were released, the camera system continued operating in orbit, supporting Earth-observation imaging for the remainder of the mission.

Rendering of an orbital transfer vehicle deploying a small satellite with a robotic arm above Earth

The Challenge: More Than Just a Camera System

At the center of the system was an NVIDIA Jetson AGX Xavier running Linux. The Jetson received video streams from multiple IP cameras, recorded the footage, performed onboard image processing, and communicated with Launcher Space’s flight computer.

That meant the network had to do far more than connect a few devices together. It carried live camera streams, recorded video, control commands, and status information simultaneously. The Ethernet switch became the core of the entire imaging system.

Rendering of the blue TRL11 multi-camera imaging unit mounted on a CubeSat structure in orbit above Earth

The Solution: Finding Room for the Network

Spacecraft don’t have room for oversized hardware. Traditional enclosed Ethernet switches would have added unnecessary weight, volume, and integration complexity. Instead, TRL11 selected the SwitchBlox Rugged, a compact board-level Ethernet switch that could be integrated directly into the recorder electronics.

The result was a clean architecture connecting four IP cameras, the Jetson processor, and Launcher Space’s flight computer through a single embedded Ethernet network.

The Results: Built for Space

The SwitchBlox Rugged fit naturally into the recorder electronics, but when you’re talking hardware aboard a spacecraft there’s much more to take into account. Launch introduces intense vibration and shock, while the mission itself demands reliable operation in the presence of radiation and extreme operating conditions.

SwitchBlox Rugged had already demonstrated the ruggedness TRL11 was looking for, with MIL-STD-810H testing, a compact board-level design, and an architecture developed for demanding embedded environments.

In-orbit footage captured by TRL11 cameras showing a gold foil-wrapped Vast spacecraft structure with Earth in the background

The completed system gave TRL11 a compact networking platform capable of supporting both CubeSat deployment recording and Earth-observation imaging throughout the mission.

THE OTHERS CASE STUDIES

THE OTHERS CASE STUDIES

Discover more of our case studies

Discover more of our case studies

READ THE CASE STUDY

Global Foundation for Ocean Exploration

High-Speed Networking to the Bottom of the Ocean

Jul 16, 2026

Global Foundation for Ocean Exploration

High-Speed Networking to the Bottom of the Ocean

Jul 16, 2026

READ THE CASE STUDY

Griffon Aerospace

Networking the Valiant UAS

Jul 16, 2026

Griffon Aerospace

Networking the Valiant UAS

Jul 16, 2026

READ THE CASE STUDY

Overwatch Imaging

Networking AI-Powered Airborne Imaging Systems

Jul 16, 2026

Overwatch Imaging

Networking AI-Powered Airborne Imaging Systems

Jul 16, 2026

READ THE CASE STUDY

MIT Motorsports

Automotive Ethernet for a Student-Built Formula SAE Race Car

Jul 7, 2026

MIT Motorsports

Automotive Ethernet for a Student-Built Formula SAE Race Car

Jul 7, 2026

READ THE CASE STUDY

Trillium Engineering

Ruggedized USB-to-Ethernet Conversion for Tactical UAS Payloads

Aug 20, 2024

Trillium Engineering

Ruggedized USB-to-Ethernet Conversion for Tactical UAS Payloads

Aug 20, 2024

READ THE CASE STUDY

JettyRobot

Gigabit Ethernet Networking Inside Pipe Inspection Robots

Jun 15, 2024

JettyRobot

Gigabit Ethernet Networking Inside Pipe Inspection Robots

Jun 15, 2024

READ THE CASE STUDY

Vision iO

Long-Range Single Pair Ethernet for Downhole Oil and Gas Cameras

May 15, 2024

Vision iO

Long-Range Single Pair Ethernet for Downhole Oil and Gas Cameras

May 15, 2024

READ THE CASE STUDY

Ross Robotics

PoE-Powered Gigabit Vision for Autonomous Energy Infrastructure Robots

Mar 10, 2024

Ross Robotics

PoE-Powered Gigabit Vision for Autonomous Energy Infrastructure Robots

Mar 10, 2024

READ THE CASE STUDY

Remotion

Compact Gigabit Switching for Marine Hull Inspection Robots

Jan 20, 2024

Remotion

Compact Gigabit Switching for Marine Hull Inspection Robots

Jan 20, 2024

READ THE CASE STUDY

Danieli Automation-Telerobot

Ultra-Compact Ethernet Switching for Nuclear Fusion Inspection Robots

Nov 10, 2023

Danieli Automation-Telerobot

Ultra-Compact Ethernet Switching for Nuclear Fusion Inspection Robots

Nov 10, 2023