Successive Collision Theory (SCT): A Scientific Alternative to the Big Bang — Dr JM Nipok

Replaces the Big Bang's one unexamined assumption — that our universe began in an isolated singular event — with a thermalized collision product inside an eternal, infinite spacetime. Sixty-nine numbered premises yield three modifications to Einstein's field equations (dynamical Λ, a coherence-weighted stress-energy tensor, a QCD lower boundary), solving seven ΛCDM mysteries at once with no new particles or fields.

Cosmology routinely treats distant source and observer with a single global Lorentz boost, yet Lorentz invariance is strictly local. A frame-tree formalism instead composes Doppler factors along the photon's path by climbing to each pair's lowest common gravitationally bound parent. The correction is tiny — 10⁻⁵ to 10⁻⁴ in redshift — but biases H₀ and the dark-energy equation of state at the percent level, exactly where today's tensions live.

A hot, dense Big Bang is not the only way to explain the cosmic microwave background. SCT reproduces all six requirements — thermalized plasma, the observed n_s = 0.965 spectral tilt, adiabatic initial conditions, the Planck acoustic peaks, superposition-as-dark-matter, Silk damping — from the collision framework. Four departures would falsify it: a dipolar spectral distortion, a shifted BAO sound horizon, tensor-to-scalar ratio r ≈ 0, and lensing amplitude A_lens > 1.

JWST has found massive galaxies and supermassive black holes at redshift 7–14 growing ten to one hundred times faster than ΛCDM allows. SCT treats them as direct predictions: collisions between nested spacetime pockets seed proto-galaxy masses M_proto = α_th·f_b·μ·Ω and black-hole seeds of 10⁷–10⁹ M☉ before recombination. The primordial tilt n_s = 1 − 1/L drops out of a 29-level cascade, matching Planck's measured 0.965.

Galaxies, satellite planes, clusters, filaments, and quasar jets all share preferred spin axes — an alignment spanning seven orders of magnitude with joint ΛCDM probability under 10⁻¹². SCT explains it with one equation: every collision imprints orbital angular momentum J = μ(b × v_rel) onto its debris as a boundary condition, then conservation carries that axis unchanged from quasar scales down to dwarf-galaxy planes. Tidal-torque theory reaches only a thirtieth of the observed coherence length.

Change one assumption — the isolated singular origin — and five long-standing ΛCDM tensions resolve at once. Three mechanisms do the work: angular momentum inherited from collision geometry, a coherence factor A(N, σ_v, R) summing the gravity of bodies moving in phase (no new particle), and collision thermodynamics that sets the cluster entropy floor. A is anchored to measurable cluster properties, not fitted. Fourteen predictions separate SCT from ΛCDM at Euclid, LSST, CMB-S4, Athena.

Dark energy emerges from gravity itself — no vacuum energy required. As overlapping gravitational wells slowly weaken over cosmic time (the "tensor mesh" dissipating), an environment-dependent term Λ_eff(x,t) = C · Λ_parent / λ_local replaces Λ in the field equations. Expansion slows in dense regions and speeds up in voids, addressing the Hubble tension, the S₈ growth discrepancy, a time-varying equation of state, and the 10¹²⁰ cosmological-constant fine-tuning problem at once.

A prosecution of ΛCDM: 231 documented observational tensions, a 5σ H₀ gap between early and late measurements, a dark-matter particle that decades cannot find, a vacuum-energy prediction off by 120 orders of magnitude. From 56 numbered premises SCT offers three reinterpretations — redshift as hereditary proper-time difference (not metric stretching), Λ as gravitational-mesh dissipation, dark matter as constructive interference of coherent masses — each carrying explicit numerical falsifiers.

Classical general relativity predicts infinite density at a black hole's center, which is where physics breaks. Coupling a lattice-QCD equation of state to the Tolman–Oppenheimer–Volkoff equations shows that once quark degeneracy pressure and QCD repulsion dominate, collapse halts at finite radius — a polyquark core instead of a singularity. The Schwarzschild exterior is preserved for r > 2GM/c², so nothing visible from outside changes; the interior is finally lawful.

A theory that cannot be killed is not science. This paper compiles 60 numbered SCT predictions across 13 physical domains — primordial helium, spectral index, BAO shift, tensor-to-scalar ratio, early black holes, cluster entropy, quasar alignments — each with explicit pass/fail criteria and current status. Seventeen ΛCDM challenges (L-01 through L-17) are catalogued alongside, with a priority timeline listing which claims DESI, Euclid, Roman, and CMB-S4 will decide next.

Closes seven of eight outstanding mathematical gaps flagged by peer review. The Bianchi identity still holds once Λ_eff becomes a dynamical field. The primordial spectral index drops out as n_s = 28/29 = 0.9655 (Planck at 0.14σ), helium Y_p = 0.2467 (PDG at 0.4σ), tensor-to-scalar r < 10⁻⁵, and two orthogonal contributions close the Hubble tension at 3.4–5.3 km/s/Mpc. A new falsifier, Λ_tidal = 450–650, awaits the next neutron-star merger.

The geometry of an eternal, nested universe has a name: the NIPOK metric. Built in seven stages — from FLRW (standard expansion) through Gödel (uniform rotation) to the full radially varying form — it describes spacetime as a hierarchy of locally rotating, pressurized comoving frames. In appropriate limits it reduces exactly to FLRW, Gödel, and Minkowski, preserving every familiar result, while adding a frame-tree photon formalism and a causal pocket boundary.

Dark matter is not a new particle — it is what ordinary matter looks like when large numbers move coherently. One derived constant, A* = 1 + N_eff·e⁻¹ = 1/f_b = 5.970, amplifies gravity roughly sixfold in virialized (gravitationally bound) systems. Every digit comes from Euler's e, the baryon fraction f_b = 0.1675, and the virial theorem — zero free parameters. Two Milky Way mass routes agree to 1.2%; ten routes confirm A*.

An action supplies the single principle from which every equation of a theory descends. This paper writes one for SCT — a post-GW170817 Horndeski-class action with two scalar fields: φ (mesh decay, sourcing dark energy) and ψ (coherence, sourcing the dark-matter analog). Four theorems recover the SCT field equations, the Λ decay law, the coherence factor A(N, σ_v, R), and the NIPOK rotation function. No ghosts, c_T = c, Cassini bound honored.

Two constants Paper 13 had to borrow are now derived from within. A gravitomagnetic retarded-potential argument upgrades v_cross = σ_v to derived status, and collision-cascade geometry yields the baryon fraction f_b = 0.162 ± 0.019 directly — making A* a derived SCT constant rather than an external calibration. New predictions: w₀ = −0.94 ± 0.03 and w_a = −0.58 ± 0.07 (DESI Y1 at 1.2σ), and lensing A_lens = 1.19 ± 0.03 (Planck at 0.2σ).

Four of today's biggest surveys disagree with Planck at 2–5σ on H₀, S₈, and the BAO sound horizon. One modification — the Codified Acoustic Relation c_s² = (1/3)(1 + R_b) with R_b = 0.260 — unifies DESI-DR2, DES-Y6, HSC-Y3, and KiDS-DR5 using two externally constrained parameters. Predictions: S₈ = 0.783, b_IA = 1.087, ΔBIC = −411 (decisive), Bayesian odds 890:1 over ΛCDM. Euclid Year 1 finding S₈ > 0.81 would falsify.

Gravity, electromagnetism, and cosmic structure emerge from one geometric primitive: a sphere of "instruction carriers" radiating from every mass or charge with amplitude A₀/r. Flux conservation plus carrier-bandwidth decoherence recovers the inverse-square law: |Ψ|² ∝ M₁/r², so F ∝ M₁M₂/r². The baryon-to-photon ratio R_b = 0.2545 ± 0.032 matches observation at 0.17σ, and N_eff = 2.514 ± 0.05 separates from the Standard Model's 3.046 by 17.7σ at CMB-S4.

Map the galaxy density along a typical cosmic filament from one end to the other. You find an asymmetric gradient. Now map the metallicity along the same axis. Same direction, same falloff. Map the bulk rotation amplitude. Same. Map the mass-to-light ratios of the ultra-diffuse galaxies that happen to lie along the spine. Same again. Five independent observational windows pointing in the same direction along every cosmic filament — and ΛCDM, with its symmetric Gaussian primordial collapse, does not naturally produce the five together at the observed amplitudes from any single mechanism. This paper shows that within Successive Collision Theory, all five fingerprints emerge from one ancient event. The cascade of superluminal collisions that produced the hot dense thermalized patch ΛCDM calls T₀ spans some span of time we cannot yet measure, but it had finished before BBN — and as those cascade flows finally dropped below the speed of light, eddies and pockets spun off carrying the cascade's residual angular momentum, density, and bulk velocity into 13.8 billion years of standard gravitational evolution. Each cosmic filament we observe today is the gravitationally-amplified ghost of one cascade-end spin-off eddy, written across megaparsecs as a fossil of one ancient moment. The picture comes with ten falsifiable predictions, four of them testable today with data already in archives at zero new observational cost.