YOUR PROGRAM
Build the experiment.
Start with the Bell-state example or bring an OpenQASM program. Inspect the circuit before choosing how to execute it.
COMPUTE · PROGRAMS · ONE API
The platform for
quantum compute.
Build, run and deploy quantum experiments through one API. Choose compute, submit a program and follow its measurements—from your first simulator example to your own application.
For your first experiment. For the applications you build next.
A quantum platform.
Two ways to make it yours.
01 / THE PLATFORM
Build.
Run.
Deploy.
One workflow.
From a question to a circuit to an inspectable result. Keep the experiment, its execution and the application you build around it connected.
Explore the developer workflowYOUR COMPUTE
Run with context.
Choose an available QPU or simulator, set the number of shots and review the quote. Follow the job from submission to measurements.
YOUR APPLICATION
Bring it into your application.
Use the same API to connect your program, job and measured result to a research notebook or your own application.
02 / CHOOSE YOUR COMPUTE
Know where
your program runs.
A simulator and a physical QPU answer different questions. Choose the execution mode, inspect availability and review the quote before submitting.
CLASSICAL SIMULATION
Start with a simulator.
Explore a circuit’s behavior on classical compute. Begin with the Bell-state example: two qubits, a short program and measurements you can inspect.
Open the Bell-state exampleThe first simulator path runs only with a verified $0 quote. Device availability and free limits are checked before a run.
QUANTUM HARDWARE
Explore physical QPUs.
See available devices and their execution context. Hardware compatibility, availability and price belong with the experiment—not behind a generic Run button.
Explore compute devicesPhysical QPU access is separate from the free simulator example; paid execution requires approved spending.
ONE JOB LIFECYCLEAPI + DASHBOARD
- 01 / SUBMITProgram + device + shotsKeep the input explicit.
- 02 / TRACKJob identity + statusFollow the same experiment.
- 03 / INSPECTMeasurements + verificationUse structured results in your application.
03 / FOR DEVELOPERS & RESEARCHERS
Your program.
Your application.
Go from an inspectable program to measurements your own tools can use.
A researcher can submit a circuit and inspect measurement distributions. An application developer can track job status and retrieve results without building a separate provider workflow.
Submit, track and retrieve results through the same service as the dashboard. Keep your interface; use a consistent execution path.
Build with the API04 / FOR CRYPTO EXPLORERS
You know crypto.
Start there.
What does a quantum computer change about a wallet signature? Follow a Bitcoin or Solana experiment, one clear step at a time.
Begin with public information, inspect a small challenge and discover what a circuit can measure. No quantum code or wallet connection is needed to explore.
Explore the crypto examplesQORVIA / CRYPTO LABGUIDED JOURNEY
- 01A public-key challengeUnderstand what is public and what remains unknown.
- 02A circuit you can inspectSee how the small experiment represents the problem.
- 03Measurements, then verificationFollow the evidence and compare the defenses.
A small teaching curve makes the mechanism visible. It is not a test against a real wallet.
05 / WHAT COMES NEXT
Quantum infrastructure for
the next generation of
crypto builders.
The question is bigger than “can a key be recovered?” It is what your wallet, bot or protocol should do next.
Explain the exposure.
Help users distinguish a public address from an exposed public key, then show the signature assumptions behind the chain they use.
Measure the tradeoffs.
Compare conventional and post-quantum signatures: message signing, verification and the size of the signature your integration carries.
Build the transition.
Turn the experiment into a useful product flow. Bring measured results and signature comparisons into your own interface.
06 / USEFUL COMPUTE ACCESS
Access should lead
to an experiment.
A compute credit should mean useful execution—not a score, a badge or another dashboard number.
Qorvia’s access model is built around the work: choose compute, review its cost and connect the resulting job to your application.
- Before a run
- Device, shots and quote in one place.
- During a run
- A job you can track, not a loading animation pretending to be compute.
- After a run
- Measurements to inspect, verify and reuse.
Bring the experiment into your own application: one access path from program to measurements.
See the compute workflowA FEW USEFUL ANSWERS
Before you begin.
Do I need to know quantum programming?
Not for the first guided example. Start with the Bell-state program and follow compute selection, quoting and results. Developers can submit programs through the same API; crypto examples provide a separate guided path.
Does the experiment access my wallet?
No. The guided challenge uses a small teaching curve and public example data. It does not ask for a seed phrase, private key or wallet signature.
Is a simulator the same as a QPU?
No. A simulator models a circuit on classical compute; a QPU executes on quantum hardware. The execution mode and device belong with each job, so results can be interpreted in context.
What can I try right now?
Open the platform dashboard, inspect the Bell-state example and explore the API. Submission uses current device availability and a verified quote; the free simulator and physical QPU paths are distinct.
START WITH SOMETHING CONCRETE