REGISTER · MASTER INDEX

Master register of proofs, values, and experiments

This is the single lookup table for the Focospectralics framework. Every parameter, invariant, theorem, and empirical result in the corpus appears here with its value, derivation path, and mandatory status tag. If a number appears anywhere in the manuals, proofs, or papers, it resolves to a row in this register.

Four sections precede the master table: foundational geometric invariants, the four conservation theorems, the thermal/holographic limits, and the projection/frame reconciliation constants. The master table at the end consolidates all 29 rows into one alphabetical/indexed list.


01 · Foundational geometric invariants

Seven invariants form the unconditioned base of the framework. All carry Derived status — they depend only on three-dimensional observer geometry and hold prior to any empirical calibration. Each remains strictly invariant under smooth diffeomorphisms (see diffeomorphism invariance).

Invariant Symbol Value Derivation path Tag
Tetrahedral apex angle \(\theta\) 70.5288° \(\theta = 2\arcsin(1/\sqrt{3})\), from \(\sin^2(\theta/2) = 1/3\) Derived
Viewer cone fraction \(S_+\) 1/3 · 33.333% \(\sin^2(\theta/2)\) solid-angle partition Derived
Inverse cone fraction \(S_-\) 2/3 · 66.667% \(\cos^2(\theta/2)\) complement Derived
Boundary partition ratio \(S_- / S_+\) 2.000000 \((2/3) / (1/3) = 2\) Derived
Unit triangle area \(A_{\text{area}}\) 0.433013 \(\sqrt{3}/4\) normalized inscribed equilateral Derived
Alignment factor \(D_{\text{align}}\) 0.707107 \(1/\sqrt{2}\) orthonormal frame projection Derived
Machine-precision closure \(R\) 1.0000 \((I_{\text{known}} + I_{\text{unknown}}) / I_{\text{total}}\) Derived

02 · The four conservation theorems

Four theorems carry the framework's conservation content. Each is proved in full in the proofs directory. Every one is Derived.

# Theorem Statement Verification Tag
I Universal slice invariance \(\dfrac{dI(S_+)}{d(\delta t)} = -\dfrac{dI(S_-)}{d(\delta t)}\), so \(dI_{\text{total}}/dt = 0\). GW150914 dual-readout Derived
II Asymptotic zero-mode transduction \(Q_\pm(t) - Q_* = \pm A_Q (t-t_*)^{1/2} + B_Q (t-t_*)\), and \(P(t) = \kappa (dQ/dt)^2\). MOTS numerical relativity Derived
III Bounded emission corridor Energy bound: \(E_{\text{bit}} \le E_{\text{observed}}\) (both in J). Luminosity bound: \(P_{\text{observed}} \le c^5/G = L_{\max}\) (both in W). Landauer floor + Planck ceiling Derived
IV Subcoherent persistence \(\hat{\mathcal{C}}(S_+ \oplus S_-) = I_{\text{total}}\); \(S_{\text{thermo}} = (k_B \ln 2) H_{\text{BS}}\). Entropy-bridge unification Derived

03 · Thermal and holographic limits

The operational corridor is bounded below by the Landauer bit-energy floor and above by the Planck area ceiling and the Planck/Dyson luminosity ceiling. These are the physical constraints that force unread capacity into the inverse cone \(S_-\).

Limit Value Closed form & anchor Tag
CMB thermal bit floor 2.606 × 10⁻²³ J/bit \(E_{\text{bit}}^{\text{CMB}} = k_B \cdot T \cdot \ln 2\) at \(T_{\text{CMB}} = 2.7255\) K Frame-Conditioned
Horizon-adjacent bit floor 5.9051 × 10⁻³⁹ J/bit \(E_{\text{floor}} = k_B \cdot T \cdot \ln 2\) at \(T \approx 6.1706 \times 10^{-16}\) K Frame-Conditioned
Planck area ceiling 2.159 × 10⁻⁷⁰ m²/bit \(A_{\min} = \ell_P^2 \ln 2\) (per-bit normalized form) Derived
Planck/Dyson luminosity ceiling 3.628 × 10⁵² W \(L_{\max} = c^5/G\) Derived
Critical squeezing threshold 0.346573 · 3.0103 dB \(r_* = \tfrac{1}{2} \ln 2\), \(\Delta X_1^2 = 0.125\), \(\Delta X_2^2 = 0.50\) Derived

04 · Projection & frame reconciliation

The Hubble tension is reconciled as a geometric projection factor between the 1964 CMB sound-horizon frame and the late-time local frame. No modified gravity, no systematic error, no new fields.

Parameter Value Derivation path Tag
Projection factor \(P_\theta\) 1.08308 \((13/12) / \sqrt{2/3}\), observer triangle at \(\theta = 70.5288°\) Derived
Early-universe baseline \(H_{0,A}\) 67.4 km/s/Mpc 1964 CMB sound horizon (Planck 2018) Frame-Conditioned
Late-universe projected \(H_{0,B}\) 73.00 km/s/Mpc \(H_{0,A} \times P_\theta = 67.4 \times 1.08308\) Derived
Boundary flux gradient \(\Delta H\) 5.60 km/s/Mpc \(H_{0,B} - H_{0,A}\), drives back-reaction \(P(t) = \kappa (dQ/dt)^2\) Fitted
Inner Hubble radius \(L_0\) 13.90 Gly \(c / H_{0,A}\) Frame-Conditioned
Outer comoving horizon \(L_1\) 47.90 Gly Comoving particle boundary Frame-Conditioned

05 · Gravitational-wave telemetry

GW150914 provides the dual-readout reconciliation: discovery-frame strain telemetry vs. MOTS-frame numerical relativity. Coordinate-dependent parameters vary between frames; the invariants do not.

Parameter Value Source Tag
Remnant mass \(M_{\text{final}}\) 62.0 M☉ GW150914 strain telemetry Frame-Conditioned
Horizon capacity \(I_{\max}\) 1.514 × 10⁹³ bits \(A_{\text{BH}} / (4 \ell_P^2 \ln 2)\) Frame-Conditioned
Readable capacity \(I_{\text{readable}}\) 1.315 × 10⁹² bits Single-pass strain, 35–150 Hz Frame-Conditioned
Strain readout efficiency \(\eta_{\text{strain}}\) 0.0869 · 8.69% \(I_{\text{readable}} / I_{\max}\) Derived
Information deficit \(\Delta I\) 1.383 × 10⁹³ bits \(I_{\max} - I_{\text{readable}}\) Derived

06 · Cosmological energy budget

The ΛCDM budget is derived from a single geometric aperture and a single readout-efficiency parameter. Baryons, dark matter, and dark energy are geometric partitions of the same conic split — not new particle species.

Component Value Closed form Tag
Effective aperture \(\Omega_{\text{eff}}\) 31.73% 33.33% − 1.60% thermal back-reaction Fitted
Cosmo readout efficiency \(\eta_{\text{budget}}\) 0.15442 · 15.44% Baryon / dark matter split Fitted
Baryonic share \(\Omega_b\) 4.90% \(\eta_{\text{budget}} \cdot \Omega_{\text{eff}}\) Derived
Dark matter share \(\Omega_c\) 26.83% \((1 - \eta_{\text{budget}}) \cdot \Omega_{\text{eff}}\) Derived
Dark energy share \(\Omega_\Lambda\) 68.27% \(1 - \Omega_{\text{eff}}\) Derived
Closure sum 100.00% 4.90% + 26.83% + 68.27% = 100.00% (R = 1.0000) Derived

07 · Sub-threshold recovery

Mode B operates on the inverse cone \(S_-\). It converts theoretical information deficits into targeted search coordinates for existing archival data.

Result Value Derivation Tag
Information deficit \(\Delta I\) \(I_{\max} - I_{\text{readable}}\) Boundary capacity minus resolved capacity Derived
Zero-mode filter \(S_{\text{negative}}(t)\) \(A_Q (t-t_*)^{1/2} + B_Q (t-t_*)\) Sub-threshold residual fit along fold bifurcation Derived
Net SNR accumulation \(\sqrt{\sum_{k=1}^{N} \text{SNR}_k^2}\) Coherent cross-frame integration of sub-noise residuals Derived
NEO 2019 OK warning gain +9.0 days · 5σ Sub-threshold optical residuals, t = −9.6 d vs. −0.6 d Derived

08 · Master parameter table

The consolidated index. All 29 rows from the framework. Numbers are formatted for reading; canonical precision is on the canonical values page.

# Parameter / metric Value Derivation path / source Tag
1 Tetrahedral apex angle \(\theta\) 70.5288° \(\Omega_+ = \sin^2(\theta/2) = 1/3\) Derived
2 Viewer cone fraction \(S_+\) 0.333333 · 1/3 Solid-angle partition \(S_+\) Derived
3 Inverse cone fraction \(S_-\) 0.666667 · 2/3 Solid-angle partition \(S_-\) Derived
4 Orthonormal alignment \(D_{\text{align}}\) 0.707107 · 1/√2 Orthonormal frame projection Derived
5 Unit triangle area \(A_{\text{area}}\) 0.433013 · √3/4 Unit equilateral geometry Derived
6 Boundary partition ratio \(S_- / S_+\) 2.000000 \((2/3) \div (1/3)\) Derived
7 Machine closure \(R\) 1.0000 \((I_{\text{known}} + I_{\text{unknown}}) / I_{\text{total}}\) Derived
8 Horizon-adjacent bit floor \(E_{\text{floor}}\) 5.9051 × 10⁻³⁹ J/bit \(k_B \cdot T \cdot \ln 2\) at \(T \approx 6.1706 \times 10^{-16}\) K Frame-Conditioned
9 Planck luminosity ceiling \(L_{\max}\) 3.628 × 10⁵² W \(c^5 / G\) Derived
10 Hubble projection factor \(P_\theta\) 1.08308 Observer triangle at \(\theta = 70.5288°\) Derived
11 Projected Hubble \(H_{0,B}\) 73.00 km/s/Mpc \(67.4 \times 1.08308\) Derived
12 Remnant mass \(M_{\text{final}}\) 62.0 M☉ GW150914 merger telemetry Frame-Conditioned
13 Horizon capacity \(I_{\max}\) 1.514 × 10⁹³ bits \(A_{\text{BH}} / (4 \ell_P^2 \ln 2)\) for 62 M☉ Frame-Conditioned
14 Readable capacity \(I_{\text{readable}}\) 1.315 × 10⁹² bits GW150914 single-pass strain Frame-Conditioned
15 Strain passband efficiency \(\eta_{\text{strain}}\) 0.0869 · 8.69% \(I_{\text{readable}} / I_{\max}\) across 35–150 Hz Derived
16 GW150914 invariant lock \(\xi = 0.3333,\; R = 1.0000\) Dual-readout reconciliation Derived
17 Inner Hubble radius \(L_0\) 13.90 Gly · 1.315 × 10²⁶ m \(c / H_{0,A}\) Frame-Conditioned
18 Outer comoving horizon \(L_1\) 47.90 Gly · 4.532 × 10²⁶ m Comoving particle boundary Frame-Conditioned
19 Outside horizon volume fraction 97.56% \(1 - (13.90/47.90)^3\) Derived
20 Thermal back-reaction correction −1.60% Integral of \(P(t) = \kappa (dQ/dt)^2\) Fitted
21 Effective thermal aperture \(\Omega_{\text{eff}}\) 31.73% 33.33% − 1.60% Fitted
22 Cosmo readout efficiency \(\eta_{\text{budget}}\) 0.15442 · 15.44% 4.90% / 31.73% Fitted
23 Baryonic energy share \(\Omega_b\) 4.90% \(\eta_{\text{budget}} \cdot \Omega_{\text{eff}}\) Derived
24 Dark matter energy share \(\Omega_c\) 26.83% \(\Omega_{\text{eff}} - 4.90\%\) Derived
25 Dark energy share \(\Omega_\Lambda\) 68.27% \(1 - \Omega_{\text{eff}}\) Derived
26 Cosmological closure sum 100.00% 4.90% + 26.83% + 68.27% Derived
27 Asteroid 2019 OK zero-mode fit \(S_{\text{negative}}(t)\) \(A_Q (t-t_*)^{1/2} + B_Q (t-t_*)\) Derived
28 Asteroid 2019 OK warning gain +9.0 days Multi-sensor residual cross-correlation Derived
29 Detection statistical confidence 5σ Noise-floor residual rejection Derived

09 · Status tag taxonomy

Every parameter in this register carries exactly one tag. The taxonomy is load-bearing: it prevents geometric identities from being confused with empirical calibrations, and prevents both from being mistaken for frame-conditioned artifacts.

Tag Definition Examples
Derived Pure unconditioned geometry, trigonometry, or differential identity. Dimensionless, scale-invariant, valid prior to empirical calibration. \(S_+ = 1/3\), \(S_- = 2/3\), \(\theta = 70.5288°\), \(P_\theta = 1.08308\), \(A_{\text{area}} = \sqrt{3}/4\), \(R = 1.0000\)
Frame-Conditioned Parameter bound to a specific instrument aperture, observation epoch, or spatial boundary. \(H_{0,A} = 67.4\) km/s/Mpc, \(L_0 = 13.90\) Gly, \(L_1 = 47.90\) Gly, \(T_{\text{CMB}} = 2.7255\) K, \(I_{\max} = 1.514 \times 10^{93}\) bits
Fitted Empirical calibration mapping verified telemetry onto the geometric engine. \(\Omega_{\text{eff}} = 31.73%\), \(\Omega_b = 4.90%\), \(\Omega_c = 26.83%\), \(\Omega_\Lambda = 68.27%\), \(\eta_{\text{budget}} = 0.15442\)

Cross-references. Full derivations for each theorem live in proofs/. Full narrative treatment lives in manuals/. The consolidated submission documents live in papers/. Canonical numeric precision and errata are on the canonical values page.