Every claim the Big Flare-Up Theory makes that differs from or extends the Standard Model. Each entry is derived in the cited paper. Quantitative claims include the numerical agreement to measured values.
Claims from P24 (quantum computing) are restricted pending patent filing and are not disclosed here.
ρ_s = 5.9 × 10⁻²⁷ kg/m³; constrained from W/Z masses, 175 galaxy rotation curves (χ²=1.31), KiDS-1000 weak lensing, and GW170817 carrier relaxation; not derived from any cosmological constant.
One fixed number ρ_s reproduces particle masses, coupling constants, atomic stability, galactic rotation curves, gravitational lensing, and CMB structure without sector-specific tuning.
The Big Flare-Up is the first large-scale ignition of nuclear fusion in an already-existing infinite substrate. Not a creation event, not a singularity.
K_s = ρ_s c² = 5.30 × 10⁻¹⁰ Pa. Determines c as the propagation speed of all substrate disturbances.
τ_c = 4.6 ms predicted from ρ_s alone. Extracted from GW170817 post-merger signal: ~6.8 ms. Brackets the prediction.
L_rlx = 1,380 km derived from ρ_s alone. Not a free parameter.
c = √(K_s/ρ_s). Universal because all disturbances travel through one medium. Not a property of light specifically.
Preferred in 80–97% of parameter space. Global minimum of the five-term free-energy functional.
80–85% of excitations achieve stable 3+e (matter). 15–20% produce cancellation waves. Asymmetry set at formation, not by CP violation in a later process.
r_p = (1 + 2/√3)·r_q = 0.8409 fm. Measured: 0.8414 fm. Agreement: 0.06%.
m_e = E_unit/(6π⁴) = 0.511009 MeV. Measured: 0.511 MeV. Agreement: 0.001%.
m_e, m_μ, m_τ all from θ = (2π+Q)/3 where Q = 2/3 from 3-core mode counting. Agreements: 0.001%, 0.005%, 0.001%.
Q = 2/3 is a topological consequence of 3-fold circulation symmetry. Not an empirical coincidence — a derivation.
BFUT independent prediction: substrate deformation is topology-blind. ALPHA 2023 result: confirmed.
Gravity → strong → EM → weak. Each requires the previous as a structural prerequisite. Standard model treats all four as separate axioms.
For r << L_rlx: F1-cov → GM/r² exactly. Newton is a consequence of the substrate equation, not an independent postulate.
Gravity is the restoring pressure gradient of the Spaticle substrate from mass-induced deformation. F1-cov is the master equation.
F1-cov → GR exactly in the quasi-static limit. BFUT does not contradict any tested domain of GR.
R_d = (3GM/Λc²)^(1/3). Sun: 363 ly. Milky Way: 517 kpc. Proton: 32.6 cm. Electron: 2.6 cm.
175 SPARC galaxies. χ² = 1.31 versus MOND 1.47. Residuals < 40 km/s for 83.4% of galaxies. No per-galaxy free parameters.
χ² = 0.007–0.067 (BFUT) versus 5.77–6.57 (NFW CDM) across all four KiDS-1000 stellar-mass bins. L_d stable at 100–116 kpc.
τ_c predicted 4.6 ms from ρ_s alone. Extracted from GW170817 post-merger signal: ~6.8 ms. Brackets prediction.
ρ_max ~ ρ_s·(c²/(C·ρ_s²))^(1/2). Finite core replaces singularity. Physical singularities are impossible by substrate dynamics.
No singularity means no mechanism for information destruction. Substrate encodes information in finite-core vortex structure.
ρ_s → {α_s, α_em, sin²θ_W, m_W, m_Z} simultaneously with zero additional free parameters.
1/137.1 from substrate rotational mode geometry. Measured: 1/137.036. Agreement: 0.05%.
0.120 from 3-core topology. Measured: 0.1179 at m_Z scale. Agreement: 1.8%.
1/4 at condensation scale → 0.2312 at m_Z via RGE. Measured: 0.2312. Agreement: 0.01%.
m_W = 80.4 GeV from ρ_s. Measured: 80.4 GeV. Agreement: 0.015%.
m_Z = m_W/cos(θ_W) = 91.8 GeV. Measured: 91.2 GeV. Agreement: 0.7%.
m_H = √(m_t·m_Z) = 125.51 GeV. Measured: 125.25 GeV. Agreement: 0.21%.
ħ = m_p·c·r_p/(π·R₀). Agreement: 0.136% (CODATA r_p = 0.8409 fm); 0.082% (BFUT-derived r_p = 0.8398 fm).
26.88, 85.61, 108.19, 117.84, and 139.62 GeV. Testable at current or future colliders.
ρ_s satisfies every DM observational requirement: non-luminous, gravitationally active, electromagnetically ultraweak. Null particle-detector results confirm field nature.
Coherence threshold: gas fails (factor 12 below threshold), galaxies pass. 138 kpc separation predicted versus 150 kpc observed. No dark matter particles required.
Higgs boson is the collective excitation of the Spaticle substrate in the electroweak mode. Confirmed at 125.25 GeV. The Spaticle field is its physical basis and covers considerably more.
Derived as low-energy non-relativistic limit of F1-cov in the condensation regime. Not a postulate.
Exponent 2 follows from the quadratic kinetic term (1/2)(∂Φ)² of the Spaticle Lagrangian. Not a postulate.
Half-integer spin is the signature of condensations embedded in a continuous substrate. 720° topology explains what standard QM postulates.
Irreversible physical coupling of distributed substrate configuration to detector matter. No observer needed. 100-year measurement problem resolved.
E(a,b) = −cos(θ_ab) from 3-core circulation phase geometry. Tsirelson bound 2√2 recovered from first principles.
Γ_sub ~ 10⁻⁹ Hz. Approximately 15 orders of magnitude below current engineering noise. Irreducible substrate-coupling floor.
One substrate, one field equation F1-cov, all scales. From proton (domain 32.6 cm) to supercluster (hundreds of Mpc) — same equation.
Not a pre-existing dimension. Time is what clocks measure: accumulated substrate state evolution at a location.
Both arise from reduction in propagation capacity available for internal substrate processes. Two formalisms, one physical origin.
c = √(K_s/ρ_s). Light travels at c because photons have no condensation to maintain. The substrate defines the limit.
L_persist = L_rlx × (E/E_min)². Optical photons: 11 AU. 100 MeV gamma rays: 88.5 Gpc.
E_min = ((ħc)³ρ_s c²)^(1/4) = 2.25 meV (λ = 88 μm). Below this energy, soliton propagation is impossible.
F1-cov → Newton (r << L_rlx), GR (quasi-static), finite domains, galactic rotation, lensing, and merger residuals. Four frameworks, one equation.
Pearson r = 0.675, 84% of survivors receding in N-body simulation of 200 galaxies. No expansion term used.
Bulk motion of ~550 km/s aligned with CMB dipole reproduces the Pantheon+ low-redshift acceleration signal. Setting bulk flow to zero collapses the signal.
BBN prediction (5.6 × 10⁻¹⁰) answers production in the first three minutes; Spite plateau (1.6 × 10⁻¹⁰) answers present steady-state equilibrium. Different questions, different correct answers. Factor-3.5 discrepancy dissolves.
CI = CI₀ × S. CI₀ = C × I × D multiplicative. Human average CI₀ = 100 (calibration constant). CI_floor = 1.0 — no physical system has zero consciousness.
Several animals exceed human average CI₀ of 100: dolphins, crows, chimpanzees, parrots. Ranking is universal, quantitative, and parameter-driven.
ħ = m_p·c·r_p/(π·R₀). Agreement: 0.136% (CODATA); 0.082% (BFUT-derived r_p). Quantum of action is the action per radian of the smallest stable substrate condensation circulation.
λ_C = m_p·r_p/(π·R₀·m) for all particles. Table of 7 particles from proton through Higgs: all 0.14% agreement. Hierarchy follows entirely from mass hierarchy.
Δx·Δp ≥ m_p·c·r_p/(2π·R₀) = 5.280 × 10⁻³⁵ J·s. The uncertainty bound is the A/R² localisation term of the P16 functional expressed as a differential operator.
ℓ_P = 1.6174 × 10⁻³⁵ m (0.068%). m_P = 2.1779 × 10⁻⁸ kg (0.068%). t_P = 5.3949 × 10⁻⁴⁴ s (0.068%). All three inherit the same agreement because Planck units scale as ħ^(1/2).
The 10¹²¹ discrepancy arises from two compounding errors: assigning separate zero-point energies to 17+ independent fields, and adding ħω/2 to empty modes with no condensations. One field at equilibrium gives ρ_vac = ρ_s·c² = 5.30 × 10⁻¹⁰ J/m³ with no cancellation.