The WIA-QUA-002 standard defines the computational framework for quantum algorithms, including quantum gates, circuits, Shor's algorithm, Grover's search, variational quantum eigensolver (VQE), quantum approximate optimization algorithm (QAOA), and quantum error correction.
Scope: Quantum Gates: Complete library of single and multi-qubit gates (Hadamard, CNOT, Pauli, T-gate, etc.) · Quantum Circuits: Build and simulate quantum circuits with arbitrary qubit configurations · Shor's Algorithm: Integer factorization using quantum period finding · Grover's Algorithm: Quantum search with O(√N) complexity · VQE: Variational Quantum Eigensolver for molecular simulations · QAOA: Quantum Approximate Optimization Algorithm for combinatorial problems
This simulator demonstrates the canonical envelope shape defined in the standard's Phase 1 specification. Click the button below to generate a sample envelope; the output is a JSON document that conforming implementations can verify with the reference CLI.
Every envelope in this standard is signed with Ed25519 over the canonical JSON form (RFC 8785 JCS). The signature covers all fields except the signature itself; downstream consumers verify by re-canonicalising and re-checking the Ed25519 signature against the publisher's tenant key registered in the WIA-OMNI-API trust fabric.
# Reference verification flow (pseudocode)
canon = jcs_canonicalise(envelope_without_signature)
ok = ed25519_verify(publisher_pubkey, canon, envelope.signature.value)
assert ok, "envelope signature does not verify"
The metrics below reflect the standard's validator score and the cohort of conforming implementations registered with the WIA trust fabric. Numbers are illustrative; the actual figures evolve as the ecosystem grows.
This page is a Phase 1 envelope simulator for the WIA-QUA-002
standard. It is intentionally minimal: a working demonstration of
the envelope shape, not a production implementation. Production
implementations carry signing keys in the WIA-OMNI-API trust
fabric, validate against the schema registry, and emit envelopes
through the Phase 2 HTTP surface documented under
../api/.
The simulator is provided so that engineers evaluating the
standard can see a concrete envelope without standing up a full
publisher endpoint. The reference CLI under ../cli/
produces equivalent envelopes from the command line, which is
the recommended path for any non-trivial experimentation.
For deeper context, the eBook companion volumes describe the domain rationale for each envelope field. Field choices in this standard are not arbitrary: each field exists to answer a question that downstream auditors, regulators, or interoperability partners would otherwise have to derive from the publisher's narrative documentation.