Decode
Executes adaptive qLDPC decoding.
QUANTUM RELIABILITY INFRASTRUCTURE FOR ADVANCED COMPUTING
Building the path to autonomous compute.
Hyper Orbits is developing the software layer that makes advanced computation adaptive, measurable and verifiable, beginning with quantum error correction.
QUANTUM HARDWARE
Quantum laboratory systems
CAMPAIGN COMPLETE
600 million simulation shots across 24 frozen reproduction cells, covering Beam8, Beam32 and Beam64 on balanced X and Z workloads.
SEE SCOPE & EVIDENCEOUR MISSION
Make advanced computation decide when more work is worth it.
We begin with quantum error correction, where reliability is urgent and measurable. The wider mission is to help future computing systems choose resources, adapt execution and verify outcomes across quantum and classical hardware.
CURRENT TECHNOLOGY
ORBIT-D
Adaptive decoding for qLDPC codes.
ORBIT-D is our first decoder technology: a real belief-propagation and bounded beam-search engine designed to measure uncertainty and vary decoding effort instead of spending the same compute on every syndrome.
- Real local BP and Beam decoder backend
- Beam8, Beam32 and Beam64 evaluation paths
- Measured iterations, expansions and runtime
- Controller, telemetry and evidence interfaces
RELIABILITY OS
One adaptive reliability system.
Seven connected components turn decoding into a controlled, measurable and deployable reliability workflow.
Optimise
Searches reliability, latency and compute trade-offs.
Adapt
Changes decoding effort as conditions change.
Route
Selects the appropriate decoding path or compute level.
Protect
Detects regressions and prevents unsafe adaptation.
Prove
Preserves telemetry, provenance and validation evidence.
Deploy
Moves optimised strategies toward GPU, FPGA and hardware-oriented execution.
Together, these components form the foundation of Hyper Orbits Reliability OS.
EXPLORE RELIABILITY OSEVIDENCE
Engineering progress, measured openly.
simulation shots recorded
frozen X/Z benchmark cells complete
same-syndrome reference checks
beam configurations measured
These measurements establish the engineering foundation for ORBIT-D. Results come from classical simulation and documented experiments; comparative performance claims remain subject to controlled, held-out validation.
HOW WE VALIDATEWHY HYPER ORBITS
Reliable computation should be adaptive, measurable and verifiable.
Hyper Orbits is building the intelligence between a computational problem and the hardware that executes it: deciding how much reliability work is required, which resources should be used and what evidence must accompany the result.
OUR COMPANYTHE HYPER ORBITS PATH
From quantum reliability to autonomous compute.
QEC is where Hyper Orbits starts. Autonomous, reliable compute is where Hyper Orbits is going.
Quantum Reliability
Adaptive QEC, decoding, optimisation and verification.
Quantum Compute
Optimise algorithms, QPU resources, classical support and reliability together.
Hardware-Neutral Compute
Select and coordinate QPUs, GPUs, CPUs and HPC based on workload requirements.
Autonomous Compute
Determine the best computational strategy for the required result, cost, speed and confidence.
WORK WITH US
Build the reliability infrastructure for what comes next.
We are seeking quantum hardware, research, evaluation, compute and grant partners who want to help validate and deploy adaptive reliability technology.
WORK WITH HYPER ORBITS