Circlette Framework

Introduces the 8-bit circlette code on a holographic lattice, derives the full fermion spectrum, charged-lepton masses (0.007%), sin²θ_W = 2/9, W/Z mass ratio, the 3+1D Dirac equation as a quantum walk, and gravity as Fisher-information curvature. The foundation for the entire framework.

Baryons as XOR composites of quarks. Beta decay is lattice error-correction via the weak CNOT. Exact zero-sum identity at every vertex. Predicts Majorana neutrino, proton stability, and identifies the W boson as the literal XOR differential.

Extends the 8-bit discrete framework to inter-generational quark mixing. Derives the CKM matrix hierarchy (Wolfenstein λ, λ², λ³), a structural GIM mechanism in which tree-level FCNCs vanish, and CP violation originating strictly from the down-type quark sector — all from topological constraints, with no continuous fitted parameters. Calculated Cabibbo angle |Vus| ≈ 0.237 and Jarlskog invariant J ≈ 4.3×10⁻⁵ show strong agreement with global fits.

An exact unitary quantum walk on the 4.8.8 lattice simulates electron wavepacket propagation, diffraction, and decoherence without continuum approximations. Natively bridges the near-field (Fresnel) and far-field (Fraunhofer) regimes, reproduces double-slit interference in close agreement with nanoscale experiments, and recovers classical Born-rule statistics from unitary evolution via an orthogonal ancillary lattice dimension.

Extends the circlette lattice mass formula to the neutrino sector. Because the weak CNOT gate is dormant for neutrinos (LQ = 0, I3 = 0), Rν = 1 and δν = 1/3, predicting m₁ ≈ 0.8 meV, m₂ ≈ 8.7 meV, m₃ ≈ 50.1 meV (Σmᵢ ≈ 60 meV, normal ordering) and an exact Koide ratio Qν = 1/2. The Δm²₂₁/Δm²₃₁ ratio matches NuFIT 5.3 to 1.6%; all five predictions are accessible to current or next-generation experiments.

Projects the same 4-step discrete quantum walk operator used for the CKM matrix onto the LQ = 0 lepton subspace. Three rigid geometric theorems explain why lepton mixing is large while quark mixing is small: the weak CNOT stays dormant, a shifted generation-mixing gate becomes a resonant driver, and the third generation is topologically isolated. Native derivation of θ₁₂ ≈ 43.7°, θ₁₃ = θ₂₃ = 0 — confirming the bimaximal ansatz as the zeroth-order PMNS geometry.

All six independent gauge anomaly conditions of SU(3)_C × SU(2)_L × U(1)_Y are satisfied exactly by the 45 fermion states of the 8-bit encoding. Hypercharges are not assigned by hand — they are read directly from bit positions via Q = T₃ + Y. The structural absence of νR from the active constraints produces a 24-Left / 21-Right chiral asymmetry and leaves global (B − L) anomalous by exactly 1 unit per generation, validating the framework's neutrino mass mechanism.

Evaluates mesons as XOR composites of their constituent quark and antiquark codewords. Because mesons are rigid SU(3) colour singlets, their colour bits algebraically cancel — mapping the pseudoscalar nonet into the colourless lepton subspace (an exact topological homomorphism). The π⁺ evaluates to the null codeword. The Bs and Bc mesons violate the framework's primary R1 constraint, natively explaining the phenomenologically extreme Bs⁰–B̄s⁰ mixing frequency.

At higher loop orders the 8-bit walk operator violently mixes muon and tau (atmospheric θ₂₃ ≈ 38°), but the same gate operation on the electron attempts a transition to the (G0 = 1, G1 = 1) state forbidden by R1 — topologically isolating the electron at tree level. Reactor θ₁₃ ≈ 6° emerges only at higher loops via virtual quark excursions; the large solar θ₁₂ must come from the static νR defect, rigorously proving the PMNS factorisation theorem from first principles.

Defines physical inertia as algorithmic resistance — the computational overhead of copying a discrete topological state forward in time. The down quark's active isospin bit (the CNOT target) costs more than the up quark's passive one, giving the neutron strictly higher inertia than the proton. Identifies the Landauer bit-weight w = αΛ_QCD ≈ 2.42 MeV, yielding the parameter-free prediction m_d − m_u = αΛ_QCD in 4% agreement with the FLAG 2024 lattice average.

Baryons act as localised static topological defects confined to a single 8-node matter octagon. The active transverse standing-wave modes of the C₈ cyclic graph give a baseline topological mass M₀ = 2√2·Λ_QCD ≈ 939.04 MeV — the isospin-averaged physical nucleon mass, with no free parameters. Universal electromagnetic coefficients (internal Coulomb B = 4w, passive ring fraction A = −7w/8) then reproduce the fine-structure mass splittings of the baryon octet.

Derives α to 3 parts per billion from discrete topological invariants of the 4.8.8 lattice, with no fitted parameters. Modelling EM scattering as a 16-node two-octagon interaction across a square gauge plaquette, the bare emission probability evaluates exactly to α₀ = 1/137. A discrete Dyson–Schwinger equation at 1- and 2-loop order gives α⁻¹ ≈ 137.035999077. The connected 4-point trace evaluates to −240 — matching the 240 root vectors of the E₈ lattice.

Derives the pion decay constant and physical pion mass from the 4.8.8 lattice with zero fitted parameters. fπ = Λ_QCD/√(4π) = 93.66 MeV (0.7% from experiment). The tree-level GMOR relation gives 169 MeV — the expected leading-order chiral-perturbation overshoot. The 1-loop chiral logarithm emerges natively from the Pólya return probability on the 2D lattice, screening the bare mass to mπ = 136.3 MeV, within 1% of the neutral pion mass.

Mesons are oscillating quantum dipoles whose electromagnetic fields are unconfined, so virtual photons mediating their self-energy must radiate into the emergent 3+1D continuum. The geometric path of least action forms a semicircle, inducing a strict π/2 penalty relative to the confined strong-force bridge. This gives Δm² = π²·αΛ_QCD² and predicts a charged pion mass splitting of 4.56 MeV vs. experimental 4.59 MeV — natively reproducing Dashen's Theorem with zero free parameters.

Shows how the 4.8.8 Archimedean tensor network intrinsically generates the geometric constants of 3+1D spacetime without free parameters. A unified scaling emerges: 1D path lengths give π/2 (resolving Dashen's Theorem), 2D isotropic radiation gives 4π (deriving fπ), and 3D volumetric flux across a degree-3 vertex gives 4π/3 — recovering the 8πG coefficient of the Einstein tensor. Gravity is not a quantised force but the macroscopic thermodynamic limit of optimal transport on a discrete quantum walk.

Derives the dark energy equation of state w₀ ≈ −0.75 structurally, matching the DESI DR2 measurement of −0.752 ± 0.071. Vacuum energy is the thermodynamic cost of evaluating the graph's 4-rule quantum error-correcting code: three parity checks are purely structural (w = −1) and one is matter-anchored (w = 0, diluting as a⁻³), so the macroscopic average is locked at w₀ ≈ −3/4. Connects this to local Ollivier–Ricci curvature via topological linearity.

Derives the CPL trajectory parameter wa with no free parameters. At a → 0 the pre-error-corrected Boolean vacuum forces w(0) = −1, which under w(a) = w₀ + wa(1 − a) mandates exactly wa = −1/4. The resulting trajectory w(a) = −1 + a/4 gives a finite, non-singular dark energy density at the Big Bang (≈ 2.117 ρ₀) and predicts vacuum decay to a pressureless state (w = 0) at a = 4 — natively averting the infinite de Sitter heat death.

Mass generation emerges from a Feshbach projection of the 8-bit walk operator through the R4-forbidden νR channel. A Colour Firewall Theorem proves no path connects quarks to νR within the valid code space. Feshbach projection converts the lepton block's characteristic polynomial from golden ratio to silver ratio — the 4.8.8 octagon eigenvalue. A double projection exposes virtual leptoquark states matching the X/Y bosons of grand unification. Identifies R1–R4 with the Pati-Salam breaking chain and dissolves the hierarchy problem via ∼10⁻²⁶ suppression.

Shows the four parity-check rules R1–R4 are exact F₂ binary generators of Pati-Salam SU(4)_C × SU(2)_L × SU(2)_R. Maps cosmological thermal history to Landauer thresholds of the lattice: R3 breaks SU(4)_C by severing Lepton Number from Colour; R2 breaks SU(2)_R by locking the Weak bit to left-handed Chirality. The Topological Seesaw against observed neutrino mass places R2 at ∼10¹⁵ GeV, converging with the R3 GUT scale, culminating in R4 at the 246 GeV electroweak scale.

Derives Newton's gravitational constant from the self-consistency requirement that vacuum energy density on the 4.8.8 holographic boundary equal the dark energy density of the Friedmann equation. Three exact algebraic steps yield M_P² = 24π·α²·Λ_QCD³ / (H₀·Ω_Λ); with Λ_QCD = 332 MeV, α⁻¹ = 137.036, H₀ = 67.4 km/s/Mpc, Ω_Λ = 0.685, this gives M_P = 1.2217 × 10¹⁹ GeV vs. 1.2209 × 10¹⁹ GeV experimentally — 0.07%, with zero free parameters. Corollary: the Euler characteristic of the 4.8.8 tiling is identically zero, explaining observed spatial flatness.

Derives the bare ρ(770) mass with zero free parameters from three theorems: the Line Graph Theorem (the flux-tube edge graph L(P₅) = P₄ has leading eigenvalue φ, the golden ratio); the Antinode Theorem (J^PC = 1⁻⁻ forces q and q̄ to antipodal nodes 4 edges apart); and Orthogonal Quadrature (two half-octagon paths combine in quadrature). This gives m_ρ^bare = √2·φ·Λ_QCD ≈ 760 MeV — 2.0% below the physical Breit–Wigner peak. The independently derived fπ and m_ρ automatically satisfy the KSFR low-energy theorem.

Derives the Hartman effect — saturation of quantum tunnelling group delay with barrier thickness — natively from the spectral anatomy of the C-gauge bridge on the 4.8.8 lattice. Six theorems establish: the Chebyshev transfer matrix gives the exact tanh(κL) dependence observed in fibre Bragg gratings; the C-resolvent supplies the rigorous foundation for Winful's stored-energy interpretation; the saturated Hartman delay deep in the bandgap is exactly 6 algorithmic clock ticks. Identifies low-energy tunnelling delay as the off-shell tail of the ρ(770) resonance — unifying quantum tunnelling with the vector meson sector.

One-stop overview of all 21 papers. Dependency graph, 32 verifiable claims, 13 testable predictions, epistemology tiers, and results from hadronic physics, flavour physics, dark energy, the fine-structure constant, Planck mass, and more.