A new computing architecture for an autonomous space economy

More intelligence in every spacecraft watt

EnergyIR provides low-energy onboard compute systems for satellites, enabling autonomous inference, optimization, and verifiable mission decisions without relying on Earth.

The constraint

Spacecraft compute is limited by power, heat, latency and bandwidth.

Every unnecessary transfer burns energy, every delayed ground loop slows the mission, and every opaque compute result creates assurance risk. EnergyIR keeps more decisions onboard so spacecraft can operate with greater autonomy inside fixed resource budgets.

Lower Energy

Up to 98% lower energy for core compute operations.

Faster Decisions

Up to 8.8x measured speedup on real workloads.

Onboard Autonomy

Run advanced models locally, not in the cloud.

Verifiable by Design

Every result is signed, logged and independently re-verifiable.

Where it fits

Practical onboard intelligence for missions that cannot wait.

Explore on Technology

Autonomous Earth observation triage

Rank scenes, discard low-value frames, and downlink the observations that matter first.

Onboard anomaly detection

Detect thermal, power, pointing, and payload anomalies before ground contact is available.

Radiation-aware edge AI

Run resilient models under constrained power and fault-prone mission conditions.

Proof layer

Measured claims need context, caveats and provenance.

The proof page now includes a 6U satellite scenario showing how lower compute demand can convert the same 99 Wh battery and solar system into more onboard intelligence, longer processing windows and greater operational margin.

1.7 hadditional measured compute
9.8 hmatrix-compute scenario
19.3 hprojected resident inference
See benchmark notes

Mission fit

Talk to EnergyIR about a mission workload.

Share the compute loop, energy budget, latency constraint or downlink bottleneck. EnergyIR can map the fit against compiler, runtime, silicon and proof requirements.

Trust signals

Built for mission environmentsDesigned for radiation-aware computeBenchmark-backed architectureExport-control aware collaboration