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Topological Superfluid Lattice · Component map

TSQC Workspace

One row per load-bearing component: what it claims, its status, what would falsify it, and which phase tests it.

Companion to the architecture briefing.

Flux identity (Φ_net = Σ Γ_n)

Claim
Total energy-information flux across the lattice equals the sum of quantized nodal circulations.
Status
Established mathematics (Stokes decomposition; quantized circulation in He-4)
Falsifier
None required — theorem, not hypothesis
Phase
All

Node qubit (torsional charge Γ)

Claim
A quantized torsional charge in a micro-node resonance loop encodes a qubit.
Status
Isomorphic to the Cooper-pair box / transmon — validated family
Falsifier
Failure to prepare, address, and read single circulation quanta in a fabricated micro-node
Phase
1

Superfluid coupling medium

Claim
A superfluid bath couples nodes with lower decoherence than solid-state wiring.
Status
Hypothesis — bath quietness documented, coherence advantage untested
Falsifier
T1/T2 with bath no better than without bath
Phase
2

Feedback error correction

Claim
Phase shifts at one node propagate corrective wavefronts that perform non-local error correction.
Status
Hypothesis — correction speed bounded by first sound (~238 m/s in He-II)
Falsifier
Decoherence timescale shorter than lattice round-trip correction time
Phase
0

Fractal scaling without thermal degradation

Claim
The architecture scales across sub-lattices without thermal penalty.
Status
Open problem — not claimed
Falsifier
Thermal budget analysis of any concrete lattice design
Phase
1

Energy-sector application

Claim
Quantum lattice hardware bears on grid optimization and materials simulation; superfluid heat transport serves high-density cooling.
Status
Established relevance (computation and cooling), architecture untested
Falsifier
Phase 0 simulation fails to show working feedback correction
Phase
0

The workspace generator

The map is only useful if the filing system exists on disk. This script builds the phased layout locally and writes into each section the standard of evidence a claim must meet to move up a phase. Re-running it is safe.

build_workspace.py
#!/usr/bin/env python3
"""build_workspace.py — Topological Superfluid Lattice (TSQC)
Creates the project directory layout on a local desktop.
Idempotent: re-running adds missing folders and leaves existing work alone.
"""
from pathlib import Path


ROOT = Path.home() / "Desktop" / "TSQC"


LAYOUT = {
    "00_ARCHITECTURE": ["white_paper", "hamiltonian", "glossary"],
    "01_SIMULATION_PHASE0": ["pennylane", "lattices", "runs"],
    "02_ANALOG_PHASE1": ["transmon_emulation", "coupling_maps", "notes"],
    "03_TESTBED_PHASE2": ["optomechanics", "cryogenics", "notes"],
    "04_FALSIFIER_REGISTRY": ["coherence_test", "addressability_test", "correction_speed_test"],
    "05_ENERGY_BRIEFING": ["grid_relevance", "cooling_engineering", "drafts"],
    "99_ARCHIVE": ["superseded", "source_transcripts"],
}


README = """This directory is a working record, not a publication.
Every claim filed here carries: date, source, method, and the observation
that would count against it. A claim moves up a phase only when its
falsifier has been tested and survived. Nothing moves out of ARCHIVE
without a witness.
"""


def build() -> None:
    for section, subs in LAYOUT.items():
        for sub in subs:
            (ROOT / section / sub).mkdir(parents=True, exist_ok=True)
        readme = ROOT / section / "README.md"
        if not readme.exists():
            readme.write_text(f"# {section.replace('_', ' ').title()}\n\n{README}")
    print(f"workspace ready: {ROOT}")


if __name__ == "__main__":
    build()
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