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Smart Systems for Space Missions

At Protostar Labs, we build flight-proven onboard data processing systems and optical payloads for satellites and space missions. Our technologies are designed for real-time processing, edge intelligence, and mission-critical reliability — tested in orbit, ready for your next launch.

Clients & Partners

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Introduction

Space demands more than innovation — it demands systems that perform flawlessly under extreme conditions. At Protostar Labs, we design and deliver flight-proven technologies built for the rigors of orbit.

From AI-powered processing and optical systems to custom electronics, our technologies deliver autonomy, intelligence, and resilience across every phase of your mission — from concept to launch.

2021

First ESA Contract

24

Engineers & Scientists

4

Active Missions

Expertise

We design and deliver mission-ready technologies for the space environment. From early mission planning to in-orbit execution, our systems are built for performance, autonomy, and reliability.

On-board Data Processing

We design systems that analyze data in orbit using AI and machine learning — reducing reliance on ground stations and enabling real-time decision-making.

Optical Payloads

We build compact, high-performance optical and multispectral imaging systems for Earth observation, scientific exploration, and in-orbit sensing.

Edge AI

Using FPGAs and low-power compute platforms, we deploy AI models that operate reliably in space, delivering fast, efficient, and autonomous analysis.

Space Missions

May, 2024

ESA OPS-SAT

On-orbit FPGA anomaly detection and telemetry analysis.

2029+

Light Pollution Characterization Module (LPCM)

Low-cost multispectral Earth observation for light pollution.

TBD

ChROmosphere Monitoring InStrument (CROMIS)

H-alpha space solar telescope

ESA OPS-SAT

Launch Date

May, 2024

Payload

Software-defined payload running on the OPS-SAT Intel Cyclone V FPGA, enabling real-time telemetry analysis, anomaly detection, and dynamic FPGA reconfiguration in orbit.

Goal

To demonstrate real-time onboard anomaly detection and in-orbit FPGA reconfiguration using the OPS-SAT platform, validating faster fault detection directly in orbit

Status: Complete

Description

The goal of this project was to port our proprietary algorithms for anomaly detection to the onboard FPGA and run the algorithms on the OPS-SAT telemetry data. OPS-SAT was intended for use as a flying laboratory, carrying various instruments and onboard computing resources, namely the FPGA board. The intention was to enable various experiments in orbit for diverse use cases and to achieve first-flight heritage. This enables easier access into the space industry where the motto was: “Has never flown, will never fly!”. OPS-SAT aims to change that!

Collaborators

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Applications

Earth Observation

Earth Observation

Imaging, spectral analysis, and real-time geospatial intelligence.

Autonomous Satellites

Autonomous Satellites

Onboard processing, anomaly detection, and in-orbit decision-making.

Space Situational Awareness

Space Situational Awareness

Object tracking, orbital monitoring, and collision avoidance.

Scientific Missions

Scientific Missions

Compact optical systems and onboard AI for space research.