ZMath encrypted file is created locally
A file is encrypted with vetted authenticated encryption and key derivation. The plaintext does not need to touch this public website.
Live IonQ quantum seal test
Create a live IonQ quantum seal for encrypted file evidence.
This test connects to IonQ Quantum Cloud using a server-side bridge and an IonQ API key, submits a compact circuit seeded from a non-secret asset label or public file hash, and binds the returned job evidence into a QuantumEncryption1 seal record.
Provider-backed proof
Run a quantum seal test.
Use a non-secret label such as a public file hash, project code, or document title. Paste an IonQ API key for investor testing, or leave it blank to use the site demo key when configured. The raw file is not uploaded and no private key is sent to IonQ. The test creates an IonQ job and returns a seal hash, job ID, backend, circuit fingerprint, job status, and browser-side encrypted demo container.
Live statusReads IonQ backend telemetry.
Live jobSubmits an IonQ circuit job.
Quantum sealBinds job evidence into ZMath-style container metadata.
Hardware QPUCan target authorised IonQ QPU backends with explicit cost confirmation.
Quantum seal consoleWaiting for live test...
{
"status": "ready",
"provider": "IonQ Quantum Cloud",
"note": "Click Check live IonQ backends or Create quantum seal."
}
Real workflow
How the quantum computer becomes part of encryption
IonQ creates a provider-backed quantum seal record. In a private implementation, that seal reference can be stored with the encrypted file envelope and audit evidence while confidentiality remains protected by vetted encryption and controlled keys.
A non-secret seal seed is generated
The system derives a public-safe seed from file hash, policy version, Zero Boundary state, and purpose metadata.
IonQ circuit job is submitted
The server submits a compact circuit through IonQ credentials. Public mode uses simulator execution; authorised pilots can target QPU hardware when access and cost are approved.
Quantum result joins the seal
The IonQ job ID, backend, status, circuit fingerprint, and returned probabilities are bound into the QuantumEncryption1 seal hash.
Encrypted container stores the reference
The ZME1-style encrypted file can carry the seal ID and external evidence reference while keeping private keys and plaintext separate.
Auditors can verify later
The organisation can check the IonQ job ID/status and compare seal hashes, file hashes, policy records, and Zero Boundary provenance.
Cost and security control
Actual hardware, controlled safely
Hardware QPU execution is available only through controlled pilots. QuantumEncryption1 wires hardware mode into the backend and gates it with server-side controls, rate limits, and private access codes.
IonQ live backend status
The page can read provider telemetry and show available simulator and QPU backends from IonQ.
Public safety mode
Public visitors can create a controlled IonQ cloud job and see a real provider job ID, status, backend, and circuit fingerprint.
QPU enterprise seal
Authorised paid deployments can use a hardware target such as an available IonQ QPU for high-assurance seal events.
No secret leakage
Only hashes, labels, and circuit metadata are sent. Customer plaintext, passwords, private keys, and classified material stay out of the public test.
AI is optional
AI can explain evidence packs, produce operator reports, or guide workflows. It is not required for the cryptographic core and does not replace AES-GCM, key management, or IonQ job evidence.
Assurance evidence
Why this is stronger than a normal encryption demo
Typical encryption demos stop after local file protection. QuantumEncryption1 adds a provider-backed quantum evidence record that can be attached to the encrypted asset and checked later.
Real IonQ job ID
A live job ID shows that a quantum-cloud provider accepted the circuit. In hardware mode, the target can be a real QPU when authorised.
Dual-key container metadata
The encrypted file workflow can store a seal ID, file hash, policy version, and Zero Boundary state without exposing the file.
Independent seal hash
The final seal hash binds job ID, backend, circuit fingerprint, asset hash, purpose hash, and result data where available.
Reviewable assurance boundary
The record states exactly what the quantum job proves and what remains protected by conventional cryptographic engineering.
Confidential introduction
Turn the test into a private QPU-backed encryption pilot.
Government, defence, aerospace, land vehicle, and critical infrastructure organisations can request a controlled hardware QPU seal workflow inside a paid implementation.