The Cascade Series

RTAC · March 2026 · DOI
The infinite-dimensional unit ball, descended to four dimensions, is indistinguishable from our universe.

The cascade series tests one hypothesis with zero free parameters. From a single axiom (orthogonality), the series derives the cosmological constant, quantum mechanics, general relativity with d=4 and Lorentzian signature, the Standard Model gauge group and its symmetry breaking, three fermion generations, precision mass and coupling predictions, and the background cosmological parameters including a Planck-compatible Hubble constant and a universe age of 13.88 Gyr.

Read another way: the universe is the asymptotic resolution of an infinite-dimensional starting object (B) — what that object looks like partway through resolving itself, dimension by dimension. Time is the rate at which the resolution proceeds. Three vocabularies describe the same rate: mathematical (the slicing recurrence extracts one dimension's worth of finite content from B at each step), physical (each Planck tick adds one cascade layer; slicing is dimensional collapse is time), and geometric (the observer's S3 shell asymptotically falls toward a 5D black-hole pseudo-horizon, never completing). See the cover sheet for the thought experiment.

Predictions

One hypothesis. Zero free parameters. Every prediction below is a test of the hypothesis.

Tier 1 — Exact: Forced by Uniqueness Theorems

Mathematical uniqueness proofs leave no alternative. These are not approximations.

PredictionValueStatusSource
Spacetime dimensiond = 4ConfirmedLovelock ∩ Clifford (III)
Metric signature(−,+,+,+)ConfirmedPropagator + Clifford (III)
Gauge groupSU(3) × SU(2) × U(1)ConfirmedAdams + Bott (IVa)
Symmetry breakingSU(2) broken; SU(3), U(1) exactConfirmedHairy ball theorem (IVa)
Fermion generationsExactly 3ConfirmedBott periodicity + d1=19 (IVa)
Free Yukawa couplingsZero — every fermion mass equals the per-layer gauge-coupling amplitude m(d) = R(d)/2; layer position from Bott + Adams (IVa)Confirmed (charged-lepton sector <1.2%; mτ/mμ +0.24σ; mτ abs −0.31σ; θC +0.03σ; b/s 0.014%)Chirality halving + Berezin partition (IVb): m(d) = R(d)/χ from Poincaré-Hopf on even-sphere Dirac layers; no Yukawa parameter ever introduced
Dark energy EoSw = −1 exactlyConfirmedFixed geometric constant (III)
Strong CP phaseθQCD = 0Confirmedπ3(S11) = 0 (IVa)
No supersymmetryConfirmed (LHC)No pairing mechanism (IVa)
No dark matter particlesConfirmed (null results)Geometry provides content (V)
No extra Higgs bosonsConfirmed (LHC)One hairy ball zero (IVa)
No axionConfirmed (null results)θQCD = 0 topologically (IVa)
No gravitonsNot yet testableMetric is state property, not quantised field (II=III, III)

Tier 2 — Derived: Closed-Form, Zero Free Parameters

Numerical predictions from cascade geometry. Formulas are exact; deviations reflect leading-order truncation.

ObservableFormulaPredictedObservedDev.
ρΛ / M4Pl,red18 · Ω19 · Ω217 / π3 · exp(δΦ)0.7145 × 10−1200.7150 × 10−120 ± 0.013−0.07% (≈ −0.04σ)
ΩΛ(π−1)/π0.68170.685 ± 0.007−0.5% (≈ −0.47σ)
Ωm1/π0.31830.315 ± 0.007+1.1%
Ωr1/(4π7)8.28 × 10−58.27 × 10−5+0.1%
TCMBfrom Ωr, H02.642 K2.7255 K−3.1% (descent-dependent)
H0from ρΛ, ΩΛ66.78 km/s/Mpc (Gram-corrected ≈ 67.5)67.4 ± 0.5−0.9% leading; ≈Planck after Gram
t0ΛCDM integral13.88 Gyr13.80 ± 0.02+0.6%
mH / mWπ/21.57081.559+0.8%
mμ / meexp(ΔΦ) · 2√π206.50206.77+0.13%
megeometric-topological0.514 MeV0.511 MeV+0.6%
mμgeometric-topological106.2 MeV105.66 MeV+0.5%
αs(MZ) leadingα(12) · exp(ΔΦ)0.11590.1179 ± 0.0009−1.7%
sin2θW leadingRadon-Hurwitz ratio0.22860.23121−1.1%
θC leadingarctan(tan(arccos(N(13)/N(12))) · exp(−p(13)/2))13.26°13.04 ± 0.05°+1.7%
θC (Cabibbo) closed−α(7)/χ2 (channel-count rule, k=2)13.04°13.04 ± 0.05°+0.03σ
θ23 (CKM) closed−α(7)/χ4 (channel-count rule, k=4)2.380°2.38 ± 0.06°+0.005σ
b/s closed−α(7)/χ4 (channel-count rule, k=4)44.743644.750.014%
αs(MZ) closed+α(14)/χ (correction family, k=1)0.117920.1179 ± 0.0009+0.02σ
mτ / mμ closed+α(14)/χ (correction family, k=1)16.817316.8170 ± 0.0011+0.24σ
mτ absolute closed+α(19)/χ (correction family, k=1)1776.82 MeV1776.86 ± 0.12−0.31σ
A closed+α(19)/χ (correction family, k=1)301.44301.6 ± 0.09−0.16σ
sin2θW closed+α(5)/χ3 (correction family, k=3)0.231230.23121 ± 0.00004+0.40σ
Ωm closed−α(5)/χ3 (correction family, k=3)0.314740.315 ± 0.007−0.04σ
1/αem1/α(13) + π/α(14) + 6π (chirality theorem, three Dirac layers)137.028137.0360.006%
mν (heaviest)m29 · α(21)/χ8 (cascade neutrino chain)0.0493 eV√Δm2atm = 0.0495 eV (PDG 2024)−0.4% (≈ −0.7σ vs PDG; −2.9σ vs NuFit 6.0)
mK / mπdV/√N(0) = 5/√2 (cascade pseudoscalar octet, Part IVb rem:cascade-beta0)3.53553.5371−0.05%
mK (charged)ΛPDG · 5√2/3 = Λ · dV·√N(0)/Nc495.0 MeV493.68 MeV+0.27%
mη / mηd0/(Nc+1) = 7/4 (η-η double-Adams; Part IVb thm:axial-anomaly-mass)1.75001.7482+0.10%
mηΛPDG · √(Nc·d0) = Λ · √21 (double-Adams: ρ(12)−1 × ρ(8)−1)962.3 MeV957.78 MeV+0.48%
mηΛPDG · (Nc+1)·√(Nc/d0) = Λ · 4√(3/7)549.9 MeV547.86 MeV+0.37%
mπ / ΛPDGN(0)/Nc = 2/3 (cascade chiral physics; rem:cascade-beta0)0.66670.6646+0.31%
fπ / mπN(0)/Nc = 2/3 (chiral, scheme-invariant)0.66670.6597+1.06%

Tier 4 — Frontier: Under Active Experimental Test

Specific predictions testable by current or near-future experiments (DESI, Euclid, CMB-S4, SH0ES, lattice QCD, PDG meson masses).

ObservablePredictedCurrent dataStatus
H066.78 km/s/Mpc (Gram-corrected ≈ 67.5)Planck: 67.4 · SH0ES: 73.0Planck-side of Hubble tension; incompatible with SH0ES
rd (sound horizon)≈147.75 MpcPlanck: 147.60 MpcEssentially equal to Planck; cascade and ΛCDM share a ruler
DESI DR2 BAO fitχ2/n = 2.35 (cascade) vs 1.90 (Planck)Two shared outliers at z=0.510, z=0.706Cascade fits slightly worse than Planck; both face same anomalies
DESI w ≠ −1 signalw = −1 exactly (structural theorem)DESI DR2: w ≈ −0.76Challenges cascade and ΛCDM equally; no ruler-based explanation
β0 (QCD 1-loop)(Nc2+Nc−1) − N(0)·nf/Nc (cascade-primitive identity; rem:cascade-beta0)β0 = 7 at nf=6 (QCD definition)Exact match across nf windows; cascade form is structural identification of QCD's 1-loop coefficient
β1 (QCD 2-loop)exact match with two cascade-primitive formsQCD MS-bar value at any nfExact match; cascade-internal disambiguation between the two forms is the open structural piece
ΛQCD cascade-nativeMZ · exp(−2π) ≈ 170 MeV; with cascade↔MS-bar scheme factor √(Nc/N(0)) → 208.6 MeVPDG MS-bar (nf=5): 210 ± 14 MeVWithin PDG band (−0.7%); cascade-internal derivation of √(Nc/N(0)) scheme factor is the Tier 2 promotion target
χtop1/4 (QCD topological susceptibility)Witten-Veneziano with cascade-primitive mη, mη, mK, fπ181 MeV (cascade inputs) · 179 MeV (PDG inputs)Lattice average ≈ 178 MeV; cascade reproduces lattice within +1.7% (cascade) / +0.7% (PDG)
Vector mesons (ρ, ω, K*, φ)Best cascade-primitive fits 1–3% from PDG; structural form ambiguous across the nonetPDG valuesDiagnostic: cascade grammar reaches PS Goldstone octet, stops at J=1; missing machinery is cascade-native hyperfine splitting (open structural direction)

Tier 5 — Provisional: Derivation Incomplete

Results where the argument has acknowledged gaps or needs strengthening.

ObservableIssue
Ωb = 1/(2π2)"One unit of content on S3" argument needs strengthening
ns, AsPrimordial spectrum not yet derived
Lighter neutrino masses, solar Δm2, PMNSSingle-source diagonal form gives m2 ≈ 3×10−4 eV and m3 ≈ 3×10−6 eV, too small for the observed solar splitting; cascade analogue of inter-generation mixing not yet derived

Papers

Cover Sheet
The Thought Experiment, Hypothesis, and Series Overview
PDF
Prelude
Why Nothing Has Structure
PDF
Part 0
Scale Variance from Orthogonality: How the Unit Ball Generates 10120 Orders of Magnitude
PDF
Part I
The Cosmological Constant from the Observer's Frame
PDF
Part II
Quantum Mechanics from the Cascade: Effective Theory of a 4-Dimensional Observer in the Sphere-Area Geometry
PDF
Part III
General Relativity, Four Dimensions, and Lorentzian Signature from the Cascade
PDF
Part II = III
Quantum Gravity without Quantising Gravity: Why the Quantum and Gravitational Projections of the Cascade Are the Same Theorem
PDF
Part IVa
The Standard Model from the Cascade: Gauge Group, Symmetry Breaking, and Three Generations from Bott Periodicity and Hairy Ball Zeros
PDF
Part IVb
The Standard Model from the Cascade: Masses, Couplings, and Precision Predictions from the Geometric-Topological Factorization
PDF
Part V
Cosmology from the Cascade: ΛCDM Parameters, the Hubble Constant, and the DESI BAO Observations
PDF
Part VI
Tower Growth, Inflation, and the Pre-Big-Bang from the Cascade (speculative extension; Tier 5)
PDF