Randomized trial explores physical predictions from 6D quasicrystal lattice, suggesting new frameworks in physics.
A lattice-native mathematical physics framework built on a unified wavefunction Ψ(n,t) = Σ φ⁻ᵈ · e^(iθₖ) · R(n,s) defined on a 6-dimensional icosahedral quasicrystal lattice projected to 3D via cut-and-project, derived from the 8D E₈ parent lattice. The icosahedral symmetry group A₅ constrains the gauge structure to SU(3)×SU(2)×U(1) without additional assumptions. Standard Model structures emerge in the long-wavelength continuum limit; model parameters are explicitly stated and "zero free parameters" is not claimed. Quantitative results without parameter fitting: lepton mass ratios to 0.006% (mτ/mμ, mμ/me, mτ/me); Weinberg angle sin²θ_W = 3/8 (A₅/SU(5)), reproduced to 0.006% by the φ-corrected running; gravitational lensing 1.75 arcseconds from the two-term equation structure; Hubble tension H₀ = 73.5 km/s/Mpc (0.65% from SH0ES); and the speed of light and Planck constant identified as lattice invariants. The cold-dark-matter-to-baryon ratio is reported as an open candidate — A₅ dimension-squared counting gives 50/9 = 5.556 (3.6% above the Planck 2018 central value of 5.36, ≈1.7% above higher literature estimates), with a φ-form candidate 4φ−1 = 5.472 landing nearby — but the sector-assignment rule is not yet derived, so it is flagged as a candidate rather than a parameter-free prediction. Apparent flatness of the observable universe is explained geometrically: the icosahedral lattice has globally curved topology but locally flat triangular faces (K = 0 exactly, verified by Gauss–Bonnet), so an observable bubble sitting on one face reproduces Planck flatness data without fine-tuning. New in v1.3: (1) Cosmological constant from phase-winding closure — ρ_Λ = 3·ρ_P/(2πN)² = 5.40×10⁻¹⁰ J/m³, parameter-free, within ~10% of the observed dark-energy density (inside combined measurement error). (2) Primordial power spectrum from V₅ Mexican-hat inflation — N_e = 8πφ² ≈ 66 e-folds, spectral index n_s = 0.970 (1.1σ from Planck 2018), tensor-to-scalar ratio r = 0.015; the amplitude A_s follows parameter-free (within a factor ~2) when V₅ inflation sits at the A₅ unification scale ~2×10¹⁶ GeV — the same scale that fixes the Weinberg angle. (3) GUT unification scale corrected to M_GUT ≈ 2×10¹⁶ GeV (the physical SU(5)/A₅ scale): forcing an exact unification spread in the prior version drove the scale super-Planckian, whereas re-fitting the φ-corrected β-functions to physical, MSSM-like coefficients lands unification sub-Planckian, consistent with both the Weinberg angle and the CMB amplitude — and makes proton decay testable (τ_p ~ 10³⁶ yr, above the Super-Kamiokande limit of 2.4×10³⁴ yr, within Hyper-Kamiokande/DUNE reach). (4) Negative-energy spectral asymmetry — the lattice eigenvalue spectrum runs ~2.3:1 positive-to-negative, a geometric origin for the sign of the matter–antimatter asymmetry (magnitude left open). Quantum-hardware and analytic results: real IBM quantum runs (ibm_fez, ibm_marrakesh, ibm_kingston) reproduce the SU(2) spinor behavior of e^(iθ) (Bell B = 2.005 vs QM 2.000), the Euclidean–Minkowski Wick chain, and the R(n,s) functional form across 22 scales from Planck to the full lattice, with cross-platform confirmation on the IonQ Forte-1 noise model (B = 2.001). The operator algebra generated by V₃⊗V₃'* produces an emergent SU(3)-adjoint-like structure (8 generators + U(1) trace), verified analytically to 10⁻¹⁶. The Nielsen–Ninomiya no-go theorem is shown inapplicable to aperiodic quasicrystals, and the chirality structure is constrained by A₅ representation theory. The scoreboard spans 26 entries across three tiers: 8 external observational or strong matches (lepton masses, gravitational lensing, Lorentz invariance, the A₅→Standard Model structure, three fermion generations, the gravitational-collapse threshold, the Hubble tension, and the cosmological constant), 3 QPU-reproduced results on two quantum platforms (the R(n,s) 22-scale form, Bell B=2.005/2.001, and the Wick chain), 5 internal lattice computations, and 10 candidate or forward predictions — with an explicit open-problems table and honest accounting of known failures. The largest open items require an N > 50,000 lattice run. Package includes: • Psi-Lattice_ToE_v1_3.docx — the theory paper (v1.3): full framework, derivations, the prediction scoreboard, and the open-problems accounting. • psi_lattice_companion_methods_v1_3.odt — the companion methods paper (v1.3): step-by-step derivations, including the phase-winding cosmological constant, the V₅ inflation / CMB amplitude, the negative-energy spectrum, and the φ-corrected β-function GUT unification, with an honest report of known failures. • psi_lattice_verification_v1_3.zip — the complete Python verification suite (psi_verify_complete.py, 1,821 lines) for independent reproduction of all computed results, with install/run scripts for Windows, Mac, and Linux. All formulas mirror the paper. • psi_lattice_balance_calculator 1.3.html — an interactive browser tool (opens offline, no install): every prediction is computed live from the fundamental inputs and checked PASS/FAIL against its observed value, so you can perturb any input (φ, N, the A₅ dimensions, the Planck and unification scales) and watch the framework's internal balance hold or cascade and fall apart. A consistency-and-exploration instrument that mirrors the verification suite; not independent confirmation. All IBM QPU job IDs and IonQ job IDs are provided for verification.
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