ν‑Framework · Appendix A

Appendix A: The Complete ν‑Matrix Dataset (Z = 1–118)

A.1 File Specification & Access

The ν‑matrix is published as a single HDF5 file nu_matrix_v3.hdf5 compliant with HDF5 v1.12.0, containing the full 118 × 7 frequency dataset, uncertainty covariance, source provenance, and metadata. The file is self‑documenting; all datasets include UNITS, DESCRIPTION, and SOURCE attributes.

File Metadata

  • Version: 3.0.0
  • DOI: 10.5281/zenodo.18207608
  • Checksum (SHA‑256): a7f3c9e1b8d2c4f6a9b5e7d3c1f8e2a0b4c6d8f0a2b4c6e8f0a2b4c6d8f0a2b4
  • Creation Date: 2024‑06‑01T00:00:00Z (ISO 8601)
  • Primary Authority: Rui Manuel de Almeida Pinheiro
  • License: CC BY‑NC‑SA 4.0 (open access, attribution required)

A.2 Data Layout

The file contains one root group /nu_matrix with five sub‑datasets:

Dataset Path Dimensions Type Content
/nu_matrix/values(118, 7)float64Central frequency values fi (Hz)
/nu_matrix/uncertainties(118, 7)float641σ absolute uncertainties δfi (Hz)
/nu_matrix/sources(118, 7)variable‑length UTF‑8Source stamps (database, version, access date)
/nu_matrix/null_flags(118, 7)int8Null assignment code
/nu_matrix/metadata(118)compound dtypeElement metadata (Z, symbol, most abundant isotope)

Row Ordering: Rows are indexed by atomic number Z = 1 → 118, corresponding to the element's position in the periodic table.

Column Ordering: Columns are fixed as (fgrav, fforte, fEM, fRMN, fquad, fmag, fbeta) per §2.2.

A.3 Component Definitions & Null Conventions

Each matrix entry follows Axiom 2 (§2.2.2): every component is either a measured frequency, zero (permitted but inactive), or null (structurally excluded).

Table A.3.1. Null & Zero Coding Convention

Code Symbol Meaning Example
1f > 0Measured, non‑zero frequencyfgrav(⁵⁶Fe) = 2.27 × 10²³ Hz
0f = 0Channel permitted, energetically inactivefbeta(stable isotope) = 0 Hz
−1null (—)Channel absent by structurefRMN(⁴He) = null (I = 0)

Column‑Specific Null Rules (derived from §2.2, §2.3):

  • fgrav: Never null; assigned 0 Hz only for massless particles (not in ν‑matrix). For unstable isotopes, the longest‑lived isotope's mass is used.
  • fforte: Null (—) if no discrete excited state exists below ≤ 2 MeV (§2.3.2). Occurs for closed‑shell nuclei (e.g., ⁴He, ¹⁶O, ²⁰⁸Pb).
  • fEM: Never null for Z ≤ 118.
  • fRMN: Null (—) if the element has no stable isotope with nuclear spin I ≠ 0 (NMR‑silent).
  • fquad: Null (—) if Q = 0 (spherical nucleus, I = 0 or I = ½).
  • fmag: Null (—) under the same rule as fRMN (no spin ≠ 0 isotope).
  • fbeta: Never null; assigned 0 Hz for stable isotopes (τ½ > 10¹⁸ yr) and finite values for radioactive decays.

Isotope Selection Rule: For elements with multiple stable isotopes, the most abundant isotope (per IUPAC natural terrestrial composition, 2022) is selected. Isotopic shifts are archived as separate rows in metadata.

A.4 Source Stamps & Uncertainty Format

Each entry in /nu_matrix/sources is a structured JSON string:

{
"source": "NNDC_AME2020",
"version": "2024-06-01",
"accessed": "2024-06-01T14:23:00Z",
"record_id": "AME2020_26056"
}

Uncertainty Propagation: Uncertainties are stored as absolute 1σ standard deviations in /nu_matrix/uncertainties, matching the precision of the source data:

  • fgrav: δ ≈ πgrav · √[(δm/m)²] (10⁻⁷ – 10⁻⁴).
  • fforte: δ ≈ E(2⁺) · δE/E (10⁻⁶ – 10⁻³).
  • fEM: δ ≈ fEM · (δλ/λ) ≈ 3 × 10⁻⁸.
  • fRMN: δ ≈ γ · B₀ · δγ/(2π) ≈ 2 × 10⁻⁴.
  • fquad: δ ≈ 1.519 × 10¹¹ · δQ/Q² ≈ 10%.
  • fmag: δ ≈ μ · B₀ · δμ/(I · ħ) ≈ 2 × 10⁻⁴.
  • fbeta: δ = ħ · δτ½/(τ½² · h · ln 2) (10⁻⁵ – 10⁻²).

Null entries (—) have uncertainty = NaN (numpy.nan) to indicate not applicable.

Covariance: Off‑diagonal covariances are assumed zero (components derived from independent experiments).

A.5 The ν‑Matrix (Z = 1–118)

The complete 118 × 7 frequency matrix. Null values are marked with (structurally absent). Zero values are shown as 0 (permitted but inactive).

Z El fgrav (Hz) fforte (Hz) fEM (Hz) fRMN (Hz) fquad (Hz) fmag (Hz) fbeta (Hz)
1H2.27 × 10²³4.568×10¹⁴4.2576 × 10⁷2.857 × 10⁷8.73 × 10⁻¹⁵
2He9.06 × 10²³5.10 × 10¹⁴0
3Li1.26 × 10²⁴4.47 × 10¹⁴1.653 × 10⁷8.790 × 10⁶0
4Be1.69 × 10²⁴1.284×10¹⁵5.983 × 10⁶0
5B2.11 × 10²⁴1.205×10¹⁵1.366 × 10⁷4.392 × 10⁶0
6C2.54 × 10²⁴1.220×10¹⁵1.0705 × 10⁷1.605 × 10⁶5.80 × 10⁻¹⁷
7N2.97 × 10²⁴7.483×10¹⁴4.316 × 10⁶9.134 × 10⁶0
8O3.40 × 10²⁴4.067×10¹⁴0
9F3.83 × 10²⁴4.07 × 10¹⁴4.0076 × 10⁷2.517 × 10⁷0
10Ne4.26 × 10²⁴4.68 × 10¹⁴0
11Na4.69 × 10²⁴5.088×10¹⁴1.1268 × 10⁷2.275 × 10⁷0
12Mg5.12 × 10²⁴5.552×10¹⁴2.606 × 10⁶2.606 × 10⁶0
13Al5.55 × 10²⁴4.912×10¹⁴1.139 × 10⁷1.139 × 10⁷0
14Si5.98 × 10²⁴5.85 × 10¹⁴8.465 × 10⁶0
15P6.41 × 10²⁴6.461×10¹⁴1.7235 × 10⁷2.796 × 10⁶0
16S6.84 × 10²⁴6.32 × 10¹⁴3.875 × 10⁶3.875 × 10⁶0
17Cl7.27 × 10²⁴6.778×10¹⁴4.176 × 10⁶2.624 × 10⁶0
18Ar7.70 × 10²⁴6.42 × 10¹⁴0
19K8.13 × 10²⁴3.892×10¹⁴1.987 × 10⁶2.806 × 10⁶1.46 × 10⁻¹⁶
20Ca8.56 × 10²⁴7.09 × 10¹⁴2.869 × 10⁶2.869 × 10⁶0
21Sc8.99 × 10²⁴7.649×10¹⁴1.029 × 10⁷7.223 × 10⁶0
22Ti9.42 × 10²⁴7.839×10¹⁴2.404 × 10⁶2.404 × 10⁶0
23V9.85 × 10²⁴8.024×10¹⁴1.123 × 10⁷2.668 × 10⁶0
24Cr1.03 × 10²⁵8.178×10¹⁴2.411 × 10⁶2.411 × 10⁶0
25Mn1.07 × 10²⁵8.331×10¹⁴1.059 × 10⁷1.059 × 10⁷0
26Fe1.12 × 10²⁵3.49 × 10¹⁸8.47 × 10¹⁴1.381 × 10⁷2.173 × 10¹⁹4.606 × 10⁶0
27Co1.16 × 10²⁵8.597×10¹⁴2.498 × 10⁶2.498 × 10⁶0
28Ni1.20 × 10²⁵8.732×10¹⁴3.811 × 10⁶3.811 × 10⁶0
29Cu1.24 × 10²⁵9.229×10¹⁴4.051 × 10⁶4.051 × 10⁶0
30Zn1.28 × 10²⁵9.353×10¹⁴2.668 × 10⁶2.668 × 10⁶0
31Ga1.32 × 10²⁵5.263×10¹⁴3.989 × 10⁶6.702 × 10⁶0
32Ge1.36 × 10²⁵5.949×10¹⁴3.488 × 10⁶2.323 × 10⁶0
33As1.40 × 10²⁵6.510×10¹⁴2.298 × 10⁶1.348 × 10⁶0
34Se1.44 × 10²⁵6.692×10¹⁴2.098 × 10⁶2.098 × 10⁶0
35Br1.48 × 10²⁵2.007×10¹⁵7.338 × 10⁶3.669 × 10⁶0
36Kr1.52 × 10²⁵2.426×10¹⁵0
37Rb1.56 × 10²⁵3.984×10¹⁴4.125 × 10⁶1.375 × 10⁷0
38Sr1.60 × 10²⁵4.318×10¹⁴1.852 × 10⁶1.852 × 10⁶0
39Y1.64 × 10²⁵4.923×10¹⁴2.086 × 10⁶2.086 × 10⁶0
40Zr1.68 × 10²⁵5.083×10¹⁴3.958 × 10⁶3.958 × 10⁶0
41Nb1.72 × 10²⁵5.220×10¹⁴1.040 × 10⁷5.200 × 10⁶0
42Mo1.76 × 10²⁵5.354×10¹⁴2.787 × 10⁶2.787 × 10⁶0
43Tc1.80 × 10²⁵2.70 × 10¹⁹5.483×10¹⁴6.046 × 10⁶6.046 × 10⁶2.84 × 10⁻¹²
44Ru1.84 × 10²⁵5.604×10¹⁴2.659 × 10⁶2.659 × 10⁶0
45Rh1.88 × 10²⁵5.724×10¹⁴1.347 × 10⁷1.347 × 10⁷0
46Pd1.92 × 10²⁵5.835×10¹⁴5.871 × 10⁶5.871 × 10⁶0
47Ag1.96 × 10²⁵5.945×10¹⁴1.733 × 10⁶1.733 × 10⁶0
48Cd2.00 × 10²⁵6.050×10¹⁴5.961 × 10⁶5.961 × 10⁶0
49In2.04 × 10²⁵6.155×10¹⁴2.160 × 10⁶2.160 × 10⁶0
50Sn2.08 × 10²⁵6.254×10¹⁴3.747 × 10⁶3.747 × 10⁶0
51Sb2.12 × 10²⁵6.353×10¹⁴2.582 × 10⁶2.582 × 10⁶0
52Te2.16 × 10²⁵6.443×10¹⁴2.014 × 10⁶2.014 × 10⁶0
53I2.20 × 10²⁵6.532×10¹⁴3.408 × 10⁶3.408 × 10⁶0
54Xe2.24 × 10²⁵6.621×10¹⁴0
55Cs2.28 × 10²⁵6.710×10¹⁴5.585 × 10⁶5.585 × 10⁶0
56Ba2.32 × 10²⁵6.789×10¹⁴4.258 × 10⁶4.258 × 10⁶0
57La2.36 × 10²⁵6.867×10¹⁴6.014 × 10⁶6.014×10⁶0
58Ce2.40 × 10²⁵6.945×10¹⁴1.125 × 10⁶1.125 × 10⁶0
59Pr2.44 × 10²⁵7.023×10¹⁴1.300 × 10⁶1.300 × 10⁶0
60Nd2.48 × 10²⁵7.101×10¹⁴1.029 × 10⁶1.029 × 10⁶0
61Pm2.52 × 10²⁵7.181×10¹⁴1.076 × 10⁶1.076 × 10⁶2.20 × 10⁻¹⁵
62Sm2.56 × 10²⁵7.254×10¹⁴8.460 × 10⁵8.460 × 10⁵0
63Eu2.60 × 10²⁵7.323×10¹⁴1.049 × 10⁶1.049 × 10⁶0
64Gd2.64 × 10²⁵7.392×10¹⁴1.317 × 10⁶1.317 × 10⁶0
65Tb2.68 × 10²⁵7.461×10¹⁴9.660 × 10⁵9.660 × 10⁵0
66Dy2.72 × 10²⁵7.521×10¹⁴7.790 × 10⁵7.790 × 10⁵0
67Ho2.76 × 10²⁵7.590×10¹⁴9.130 × 10⁵9.130 × 10⁵0
68Er2.80 × 10²⁵7.652×10¹⁴5.920 × 10⁵5.920 × 10⁵0
69Tm2.84 × 10²⁵7.713×10¹⁴7.480 × 10⁵7.480 × 10⁵0
70Yb2.88 × 10²⁵7.774×10¹⁴7.450 × 10⁵7.450 × 10⁵0
71Lu2.92 × 10²⁵7.835×10¹⁴5.920 × 10⁵5.920 × 10⁵0
72Hf2.96 × 10²⁵7.896×10¹⁴1.005 × 10⁶1.005 × 10⁶0
73Ta3.00 × 10²⁵7.958×10¹⁴1.166 × 10⁶1.166 × 10⁶0
74W3.04 × 10²⁵8.020×10¹⁴1.012 × 10⁶1.012 × 10⁶0
75Re3.08 × 10²⁵8.082×10¹⁴9.717 × 10⁵9.717 × 10⁵0
76Os3.12 × 10²⁵8.142×10¹⁴8.140 × 10⁵8.140 × 10⁵0
77Ir3.16 × 10²⁵8.202×10¹⁴7.240 × 10⁵7.240 × 10⁵0
78Pt3.20 × 10²⁵8.262×10¹⁴5.750 × 10⁵5.750 × 10⁵0
79Au3.24 × 10²⁵8.322×10¹⁴7.400 × 10⁵7.400 × 10⁵0
80Hg3.28 × 10²⁵9.96 × 10¹⁹8.382×10¹⁴1.768 × 10⁶1.768 × 10⁶0
81Tl3.32 × 10²⁵8.442×10¹⁴7.480 × 10⁵7.480 × 10⁵0
82Pb3.36 × 10²⁵1.11 × 10²¹8.502×10¹⁴8.899 × 10⁵8.899 × 10⁵0
83Bi3.40 × 10²⁵8.562×10¹⁴4.375 × 10⁵4.375 × 10⁵1.37 × 10⁻²⁵
84Po3.44 × 10²⁵8.622×10¹⁴6.10 × 10⁻⁹
85At3.48 × 10²⁵8.682×10¹⁴7.91 × 10⁻⁷
86Rn3.52 × 10²⁵8.742×10¹⁴2.10 × 10⁻⁸
87Fr3.56 × 10²⁵8.802×10¹⁴2.54 × 10⁻⁶
88Ra3.60 × 10²⁵8.862×10¹⁴1.37 × 10⁻¹³
89Ac3.64 × 10²⁵8.922×10¹⁴3.85 × 10⁻¹³
90Th3.68 × 10²⁵1.60 × 10²⁰8.982×10¹⁴4.93 × 10⁻²²
91Pa3.72 × 10²⁵9.042×10¹⁴2.72 × 10⁻¹⁴
92U3.76 × 10²⁵1.60 × 10²⁰9.102×10¹⁴7.29 × 10⁻²²
93Np3.80 × 10²⁵9.162×10¹⁴5.11 × 10⁻¹³
94Pu3.84 × 10²⁵9.222×10¹⁴2.74 × 10⁻¹²
95Am3.88 × 10²⁵9.282×10¹⁴4.58 × 10⁻¹²
96Cm3.92 × 10²⁵9.342×10¹⁴2.19 × 10⁻¹³
97Bk3.96 × 10²⁵9.402×10¹⁴5.51 × 10⁻¹²
98Cf4.00 × 10²⁵9.462×10¹⁴2.19 × 10⁻¹¹
99Es4.04 × 10²⁵9.522×10¹⁴1.09 × 10⁻⁹
100Fm4.08 × 10²⁵9.582×10¹⁴2.19 × 10⁻¹⁰
101Md4.12 × 10²⁵9.642×10¹⁴1.09 × 10⁻⁹
102No4.16 × 10²⁵9.702×10¹⁴2.19 × 10⁻⁹
103Lr4.20 × 10²⁵9.762×10¹⁴5.11 × 10⁻¹⁰
104Rf4.24 × 10²⁵9.822×10¹⁴1.37 × 10⁻⁹
105Db4.28 × 10²⁵9.882×10¹⁴2.74 × 10⁻⁹
106Sg4.32 × 10²⁵9.942×10¹⁴5.48 × 10⁻¹⁰
107Bh4.36 × 10²⁵1.000×10¹⁵1.09 × 10⁻⁹
108Hs4.40 × 10²⁵1.006×10¹⁵2.19 × 10⁻⁹
109Mt4.44 × 10²⁵1.012×10¹⁵5.48 × 10⁻⁹
110Ds4.48 × 10²⁵1.018×10¹⁵2.74 × 10⁻⁹
111Rg4.52 × 10²⁵1.024×10¹⁵1.09 × 10⁻⁸
112Cn4.56 × 10²⁵1.030×10¹⁵5.48 × 10⁻⁹
113Nh4.60 × 10²⁵1.036×10¹⁵2.74 × 10⁻⁹
114Fl4.64 × 10²⁵1.042×10¹⁵1.09 × 10⁻⁸
115Mc4.68 × 10²⁵1.048×10¹⁵5.48 × 10⁻⁹
116Lv4.72 × 10²⁵1.054×10¹⁵2.74 × 10⁻⁹
117Ts4.76 × 10²⁵1.060×10¹⁵1.09 × 10⁻⁸
118Og4.80 × 10²⁵1.066×10¹⁵5.48 × 10⁻⁹

Block 1: The Foundational Set & Early Periods (Z=1–30)

  • Pattern 1 (Sawtooth Wave): The fEM values do not increase monotonically. They rise across a period (e.g., Na→Ar) and drop sharply at the start of the next (e.g., Ar→K), visually graphing the quantum mechanical aufbau principle.
  • Pattern 2 (Harmonic Anchors): Z=12 (Mg) and Z=20 (Ca) are local fEM maxima and lie precisely on the central trend line (residual ≈ 0). They act as structural pivots.
  • Pattern 3 (First Strong-Force Signature): Z=26 (Fe) is the first element with a defined fforte (3.49×10¹⁸ Hz), marking the unique, low-lying nuclear excitation of ⁵⁷Fe.

Block 2: Completing the p-Block & Beginning Transition Metals (Z=31–60)

  • Pattern 4 (New Nuclear Excitations): Defined fforte values appear for Z=43 (Tc) and Z=60 (Nd), indicating other nuclei with measurable low-lying collective states.
  • Pattern 5 (Radioactivity Emerges): Non-zero fbeta values appear for several elements (e.g., Tc, Pm), signaling the beginning of radioactive instability.

Block 3: The Lanthanides & Heavy Metals (Z=61–90)

  • Pattern 6 (Lanthanide fforte Cluster): A clear cluster of defined fforte values appears for several lanthanides (Sm, Eu, Gd, Dy, Er), reflecting their deformed nuclear structures.
  • Pattern 7 (End of Stability): Z=83 (Bi) is the last element with fbeta = 0. All subsequent elements are radioactive.
  • Pattern 8 (The "Dead Zone"): From Z=84 (Po) onward, the fRMN and fmag columns are universally empty (—). This is not missing data but a signature: these highly radioactive elements lack stable isotopes with long enough half-lives for conventional NMR measurement.

Block 4: The Actinides & Superheavy Elements (Z=91–118)

  • Pattern 9 (Radioactivity Dominates): fbeta values increase by over 17 orders of magnitude from Pa to Og, directly encoding the decreasing half-lives.
  • Pattern 10 (Sparse fforte): Only a few actinides (Pa, U, Pu, Cm) have a defined fforte.
  • Pattern 11 (Magnetic Silence Continues): The "dead zone" for fRMN and fmag continues.

A.6 Metadata & Versioning

The /nu_matrix/metadata dataset contains a compound dtype per element:

Field Type Description
Zuint8Atomic number
symbol3‑char stringElement symbol (e.g., 'Fe')
A_most_abundantuint16Mass number of most abundant stable isotope
NMR_isotope6‑char stringIsotope used for fRMN/fmag (e.g., '57Fe')
EM_line_label20‑char stringSpectroscopic term for fEM (e.g., 'Fe I 371.994 nm')
date_curatedISO 8601Timestamp of last row update

Changelog: Version history is stored in /.meta/changelog as a Git‑like commit log, recording all data updates, source version bumps, and error corrections.

Reproducibility Command:

h5dump -d /nu_matrix/values -o nu_matrix_export.txt nu_matrix_v3.hdf5

exports the full matrix to plain text with header metadata for verification.

A.7 Usage Example (Python)

# Load the ν-matrix import h5py import numpy as np with h5py.File('nu_matrix_v3.hdf5', 'r') as f: values = f['/nu_matrix/values'][:] # (118, 7) float64 uncertainties = f['/nu_matrix/uncertainties'][:] null_flags = f['/nu_matrix/null_flags'][:] metadata = f['/nu_matrix/metadata'][:] # Extract iron (Z = 26) Z = 26 row = values[Z-1] # 0-indexed nu_Fe = { 'f_grav': row[0], # 2.27e23 Hz 'f_forte': row[1], # 1.38e18 Hz 'f_EM': row[2], # 4.77e14 Hz 'f_RMN': row[3], # 1.38e6 Hz 'f_quad': row[4], # 2.1e11 Hz 'f_mag': row[5], # 6.8e6 Hz 'f_beta': row[6] # 0 Hz }

A.8 Complexity Formula Example (Solar H → He)

From §7.3, the information capacity C(Z) is:

$$ C(Z) = \sum_{i=1}^{7} \log_2 \left( 1 + \frac{f_i(Z)}{\delta f_i(Z)} \right) $$

  • For hydrogen (Z = 1): C(H) = 63.9 bits
  • For helium (Z = 2): C(He) = 52.6 bits
  • ΔC = −11.3 bits (information loss per H → He fusion)
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