Clio: Design, Implementation, and Evaluation of a Programmable Virtual Quantum Processing Unit
A software-defined virtual quantum processing architecture implemented as an independent Rust system.
On This Page
01 — Overview
Overview
Clio VQPU documents Archeum Studios' programmable virtual quantum processing architecture as a complete software-defined processor rather than only a circuit surface.
Clio is a complete virtual-processor architecture with reproducible evidence, but the paper keeps a hard public boundary: it is classical simulation, not physical quantum hardware, and it does not claim quantum advantage.
02 — Evidence boundary
Evidence boundary
This page stays inside the paper's public claims boundary. Clio executes quantum-state evolution through classical simulation.
It is not physical quantum hardware, does not claim quantum advantage, and does not present machine-specific benchmark measurements as universal superiority claims.
03 — Links
Links
The repository preserves the implementation, paper, benchmarks, release artifacts, and reproducibility materials. The GitHub PDF and DOI are the canonical reading surfaces.
04 — Findings
What the release preserves.
- Independent architecture with its own instruction set, processor state, assembly language, runtime, replay tooling, and visual laboratory.
- Real quantum-state evolution through classical state-vector simulation.
- 68 Rust tests passed at the definitive release gate.
- 330 final benchmark measurements retained with raw data, environment metadata, checksums, and a frozen processing path.
- Bell, GHZ, Grover, QFT, Bernstein-Vazirani, and Deutsch-Jozsa state vectors compared against Qiskit baselines.
- Largest recorded amplitude difference in the published Qiskit comparison stayed below 7 x 10^-16.
05 — Prototype
Selected architecture details.
Published benchmark evidence describes the documented machine and protocol only; it should not be read as a universal simulator ranking.