AIQSAT

AIQSAT project · Technology

Onboard AI Computing

Radiation-tolerant edge processing for autonomous spacecraft

We are developing this technology as part of an intelligent, quantum-secure satellite network for stable data exchange between orbit and Earth.

Onboard AI computing

What we are developing

An intelligent satellite needs to decide in orbit, not after the next downlink. AIQSAT builds the onboard computing stack: radiation-tolerant AI accelerators, model compression and a flight software layer that lets neural networks run safely next to the platform's critical functions.

Radiation-tolerant accelerators

Space-qualified FPGA and SoC based inference hardware with error correction, watchdogs and redundant boot paths for the harsh orbital radiation environment.

Compressed neural networks

Quantised and pruned vision and time-series models that fit into a few watts of power budget while keeping detection accuracy close to ground-grade models.

Autonomy and edge triage

Onboard cloud masking, target detection and anomaly flagging, so only relevant scenes and events consume precious downlink bandwidth.

Secure model updates

Signed over-the-air model uploads, staged rollout and in-orbit A/B verification before a new model is given operational authority.

Technology stack

  • Rad-tolerant FPGA / SoC inference
  • TinyML & quantised CNN / transformer models
  • Federated and incremental in-orbit learning
  • Fault-tolerant real-time flight software

The opportunity

Move intelligence and trust closer to the source

A satellite that must send every raw observation to Earth is limited by contact windows, bandwidth and ground response time. As sensors become more capable and constellations grow, centralised processing becomes an operational and economic bottleneck.

AIQSAT is developing a dependable computing layer that lets spacecraft interpret conditions, select valuable data and support mission decisions in orbit—while keeping safety-critical control isolated, observable and under human authority.

System architecture

A connected path from orbital signal to trusted decision

The project is designed as a modular system. Each layer can create value independently, while the complete architecture enables a secure, intelligent data network across orbit and Earth.

  1. 1Ingest

    Unify payload and health data

    A controlled interface accepts imagery, signals and telemetry without exposing critical flight functions.

  2. 2Infer

    Run efficient models

    Quantised models execute within strict power, memory, thermal and timing budgets.

  3. 3Assure

    Check every decision

    Confidence thresholds, watchdogs and deterministic fallback paths limit operational risk.

  4. 4Improve

    Update with control

    Signed packages and staged activation allow models to evolve over a mission's lifetime.

Strategic value

Built around the needs of future operators

AIQSAT is being shaped for organisations that need resilient infrastructure, faster access to useful information and a security model designed for the quantum era.

Payload programmes

Extract more mission value from every observation by filtering, classifying and prioritising data before downlink.

Fleet operators

Move toward event-driven tasking and scalable supervision without removing operational safeguards.

Platform manufacturers

Offer customers a differentiated, reusable compute capability alongside the spacecraft bus.

Strategic investors

Back a software and systems layer with applicability across observation, communications and security missions.

Development path

A staged route from validation to deployment

The roadmap is structured to retire technical risk early, prove interoperability and create clear decision points for partners and capital providers.

Bench

Workload characterisation

Benchmark priority models against representative data, hardware limits and mission assurance criteria.

Flight-like

Resilient compute module

Integrate accelerator, fault detection, secure boot and thermal management in a representative environment.

Orbit

Controlled demonstration

Validate inference quality, energy use, radiation response and update procedures in flight.

Product

Reusable mission layer

Package qualified workflows and interfaces for adoption across spacecraft and payload families.

Investment case

An infrastructure opportunity at the intersection of three markets

The project combines differentiated engineering, reusable intellectual property and a platform approach intended to support multiple missions, customers and commercial models.

Cross-mission IP

The value lies in optimisation, assurance and orchestration that can be reused beyond a single hardware configuration.

High integration value

A validated onboard stack can reduce customer effort at the difficult boundary between models, compute and flight operations.

Recurring lifecycle role

Potential revenue extends from integration to licensed runtime, controlled model updates and mission support.

Build the next layer with us

A more efficient, resilient and secure future for orbital data.

We welcome compute suppliers, mission owners, AI specialists and investors to help move trustworthy orbital intelligence from laboratory validation into flight.

Discuss Onboard AI Computing