Experimental programme

A practical
sequence.

Experiments follow five steps, from a specified apparatus to stated conclusions. No experiment, laboratory partnership or device booking is claimed on this page.

Sequence

Five steps

  1. A

    Specify the apparatus and model

    Identify preparations, measured quantities, instrument, noise assumptions, clock calibration and record mechanism.

  2. B

    Freeze the evaluation protocol

    Set the forecast rule, controller, comparators, data exclusions, metrics and rejection criteria before inspecting evaluation outcomes.

  3. C

    Check implementation

    Use exact cases and simulations to verify the model and software. Label these checks as mathematical or simulation checks, not experimental results.

  4. D

    Evaluate prospectively

    Use held-out records or a prospective experiment with appropriate controls and complete reporting of eligible trials.

  5. E

    Assess physical and engineering conclusions

    State what the evidence supports, which model it tests and what remains unresolved.

Proposed protocol

A quantum-control experiment

Proposed protocol, not a completed experiment

Target

A target qubit or quantum memory.

Sensing

A sensor or spectator readout, where the proposed model requires it.

Correction

A specified correction such as phase feedforward.

Resources

Matched sensing, reset and intervention resources for every controller.

Comparison

The strongest implementable conventional controller, plus simpler baselines.

Outcome

Net performance on held-out runs, end-to-end latency and deadline misses.

Full evaluation design in the quantum control dossier →

Traceability

What every displayed result must carry

No dataset or benchmark is currently displayed. Any future result will carry this provenance:

  • Source and version
  • Experimental or synthetic origin
  • Units and outcome definitions
  • Training and evaluation separation
  • Exclusion rules
  • Metric definitions
  • Sample counts and uncertainty
  • Code or calculation reference

Historical proposals

Earlier experimental ideas

Earlier PDT papers proposed a coherence floor, a Yukawa-type force signature and photon parity or helicity effects. These proposals are retained in the historical research record, but are not current predictions of the foundational suite. A testable prediction requires a specified physical model, a quantitative calculation and an experimental protocol.