QALICEOpen quantum lab

Journeying through the
quantum glass.

A rigorous path from quantum-mirror hypothesis to reproducible simulation, photonic networks, and future space systems.

Run a simulationRead the whitepaper
Local simulator ready · IBM Quantum optional
Mirror node AMirror node BMirror node COriginal Qalice orange cat and quantum mirror mark

From hypothesis to hardware.

TheoryRead the full Qalice whitepaper.ArchitectureInspect the logical node-pair design.Quantum LabRun a real finite-shot simulation.AstroExplore photonic space systems.

A public record of the idea.

Qalice defines quantum mirroring as a system-level feedback framework spanning observation, simulation, photonic control, and adaptive response.

“A dynamic feedback loop intended to stabilize qubit states, counter decoherence, and preserve entanglement.”
01
Qalice Quantum Mirror whitepaperFull Implementation Edition · read on Qalice
02
Public documentationOpen methods and implementation notes
03
Download the Implementation EditionComplete Qalice-authored DOCX

The quantum-mirror network.

Two logical nodes coordinate optical modes, authenticated classical feed-forward, and a shared simulation layer.

  1. 01
    Quantum interfaceControl qubits and mirror interfaces at each node.
  2. 02
    Photonic transportCoherent-state optical links connect the nodes.
  3. 03
    Classical controlAuthenticated feed-forward and synchronized telemetry.
Open architectureDownload the implementation edition
Conceptual Qalice quantum-mirror node pair with optical and classical links
Conceptual architecture · simulation and requirements development · not demonstrated hardware

Run the mirror protocol.

Start locally. Connect IBM Quantum when hosted credentials are configured.

Execution target
CircuitMirror protocol
q0
q1
HHXMM
H HadamardX Pauli-X Control Target
CountsAwaiting run
000
010
100
110
Fidelity proxy—
ExecutionLocal statevector
Simulator ready

Secure IBM boundaryChecking secure configuration…

IBM superconducting QPUs can validate gate-model subcircuits and noise baselines. They do not natively reproduce coherent optical modes or a physical quantum metasurface; those require a photonic/open-system simulator and, ultimately, laboratory hardware. IBM Runtime API reference ↗

Photonics for the long distance.

Lasers move information efficiently today. Future space infrastructure may also use directed optical energy for power beaming, sensing, and coordination—subject to pointing, thermal, safety, and conversion constraints.

Now · optical communications
Next · precision sensing
Horizon · directed energy transfer

Astro is a research horizon, not a deployed claim.

Explore astro.qalice.com
Orbital relay
Mining craft

One Qalice research program.

The hypothesis, executable model, photonic architecture, and space-systems horizon are documented together with explicit evidence boundaries.

Qalice · Quantum mirroring

Feedback-driven stabilization, observation, simulation, photonic control, and adaptive system response.

Read the full whitepaper
Qalice · Astro photonics

Laser conversion, mirror relays, link budgets, sensing, and future space-resource operations.

Open the Astro simulator

Qalice separates demonstrated capability, modeled engineering, and future hypotheses. External research appears only where it belongs: in the whitepaper references.

QALICE

Independent research, built in public.

Keaton R. McCune is the founder of Qalice. The work explores quantum communication, computation, security, photonics, and energy systems through openly documented hypotheses and reproducible software boundaries.

Read the Qalice whitepaperOpen implementation notes