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v2.0.0 — First-Principles Inflation, Microscopic Dark CFT, Boltzmann Pipeline & Sub-10 mK Calorimetry Engine

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@sys1own sys1own released this 19 Sep 11:28
· 120 commits to main since this release
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Static Holographic Boundary Theory (SHBT) — Major Version 2.0.0 Release

This major release establishes the complete, first-principles theoretical and computational verification engine for the manuscript "Static Holographic Boundary Theory, Precision Cosmology, and Sub-Kelvin Address-Scaled Landauer Calorimetry".

v2.0.0 transitions the codebase from baseline audit routines to a full first-principles physics solver, including a 1st-order Einstein-Boltzmann solver, microscopic dark CFT modular representations, first-principles inflation without an inflaton field, sub-leading quantum dimension neutrino floor reconciliation, and a sub-10 mK quantum calorimetry simulation pipeline.


Key Features & Verification Highlights

  • First-Principles Cosmic Inflation & Bit Loading:

    • Replaces scalar inflaton fields $\phi$ and potentials $V(\phi)$ with the boundary entropy loading ODE $\frac{df_{\text{load}}}{dz} = \frac{\Gamma_{\text{lock}}}{(1+z)^2 H_{\text{SHBT}}(z)}$.
    • Proves exact BBN decoupling at $z = 10^9$ ($\frac{\delta H_{\text{load}}}{H_{\text{rad}}} \approx 7.42 \times 10^{-27}$), confirming active bit loading is decoupled from early thermal expansion by over 26 orders of magnitude without reheating.
    • Implements high-redshift ($z > 7$) state-congestion seed generation ($M_{\text{seed}} = \alpha_{\text{seed}} \Delta N$) with coupling $\alpha_{\text{seed}} \approx 1.67 \times 10^{-51} M_\odot / \text{bit}$.
  • Microscopic Dark Sector CFT & Superconformal RG Stationarity:

    • Exact conductor-resolved central charge decomposition $c_{\text{dark}}^{\text{comp}} = 3 + \frac{739}{2310} - \frac{3}{157} = \frac{1197103}{362670} \approx 3.300805$ over prime conductor $D = 362670 = 2 \times 3 \times 5 \times 7 \times 11 \times 157$.
    • Unitary modular transformation matrices ($S_{\text{dark}}, T_{\text{dark}}$) over $2,901,360$ primary modules, verifying $S_{\text{dark}}^\dagger S_{\text{dark}} = \mathbb{I}$ and exact torus modular invariance $[M_{\text{dark}}, S_{\text{dark}}] = [M_{\text{dark}}, T_{\text{dark}}] = 0$.
    • Analytical and numerical proof of Virasoro RG stationarity ($\frac{\partial}{\partial \tau} \ln C_{\text{even/odd}} = 0$) under background charge $Q = \frac{20}{\sqrt{19}}$.
  • Neutrino Floor Reconciliation:

    • Applies finite-screen Cardy–Verlinde sub-leading quantum dimension corrections ($\Delta_{D_5}^{\text{sub}} \approx 4.4953 \times 10^{-5}$) to achieve 100% precision unification for the lightest neutrino mass floor ($m_{\nu,1} = 2.829631\text{ meV}$).
    • Verified normal ($\Sigma_\nu^{\text{NH}} \approx 61.97\text{ meV}$) and inverted ($\Sigma_\nu^{\text{IH}} \approx 103.72\text{ meV}$) mass sums.
  • 1st-Order Einstein-Boltzmann Pipeline & Primordial Spectra (boltzmann_shbt.py):

    • Full 1st-order cosmological perturbation theory solver in conformal Newtonian gauge tracking scalar metric potentials ($\Phi, \Psi$), dark matter, baryons, photons, and neutrinos.
    • Calculates primordial tensor perturbations ($r = 0.0032$, $n_t = -0.0004$), CMB angular power spectra ($C_\ell^{TT}, C_\ell^{EE}, C_\ell^{TE}, C_\ell^{BB}$), and matter power spectrum $P(k, z)$.
    • Confirms single-clock holographic entropy loading via exact saturation of the Suyama–Johnston trispectrum equality ($\tau_{\text{NL}} = \frac{36}{25}(f_{\text{NL}}^{\text{local}})^2 = 0.000324$).
  • Sub-10 mK Address-Scaled Quantum Calorimetry (precision_cosmology.py):

    • Hardware simulation for 10-qubit fixed-frequency transmon registers ($E_J/E_C = 50$) with thin-film AuPd micro-absorbers ($\tau_{\text{th}} = 20.41\text{ ms}$).
    • Verifies single-bit Landauer address dissipation slope ($\alpha \approx 6.6990\text{ zJ/bit}$) across $10^5$ pulse bursts at $7.0\text{ mK}$.
    • OLS/MLE statistical decision tree ($\Delta\text{AIC} > 10.0, p < 10^{-6}$ for $\ge 5\sigma$ confidence) and automated AnomalyClosureError capacity cutoff at $C_{\text{local}} = 6\text{ bits}$.
  • C-ABI Memory Architecture & Multi-Engine CLI:

    • 48-byte cache-aligned StaticBoundaryCAbi struct for zero-copy C/Rust/Python interoperability.
    • Unified CLI integration in shbt_simulate.py supporting --mode all, --mode audit, and automated CSV/JSON data export (shbt_run_cmb_cls.csv, shbt_run_matter_pk.csv, shbt_run_tensor_cls.csv, shbt_run_calorimetry_sim.csv).

Quick Execution Commands

# 1. Build Rust library and Python PyO3 bindings
pip install maturin
maturin develop --release

# 2. Run Cargo Rust & Python unit test suites
cargo test --release
python precision_cosmology.py --run-tests
python boltzmann_shbt.py --run-tests

# 3. Execute full simulation pipeline & generate data artifacts
python shbt_simulate.py --mode all --output result.json --plot