Description This Version 6 archive presents dimensional-genesis dynamics, a finite causal framework in which directed space, causal time, metric signature, field degrees of freedom, and four interaction sectors arise from the breaking and reclosure of a dimensionless zero-balance state rather than being introduced on a pre-existing spacetime background. The primitive 5: 5 state has no residual polarity, directed current, or causal orientation. A one-sided first torque separates a primary endpoint from a delayed secondary response and activates a conserving Gamma connection satisfying A + B + CGamma = T₀. The Gamma connection carries unresolved conservation burden, directed transfer, finite propagation order, causal precedence, and route-dependent history. A spatial rank-lift law increases dimension only when a newly activated Gamma carrier lies outside the span of the existing carrier. The construction consequently opens a signed one-dimensional line, a non-collinear two-dimensional plane, and a rank-three isotropic close-packed spatial carrier. The primary–Gamma–secondary precedence relation independently generates one causal rank without an externally supplied clock. Exhaustive evaluation of all sixteen primitive sign assignments selects the positive-energy hyperbolic signature (+, −, −, −) and the native metric diag (4, −1, −1, −1). Time is therefore not treated as a fourth equivalent spatial axis. It is an independent causal direction that orders complete three-dimensional spatial states. Its direction is defined by Gamma precedence, its address by cumulative causal depth, and its internal content by ordered Gamma history holonomy. The term dynamics is used in a physical rather than metaphorical sense. The theory contains state variables, alternative primary branches, directed update operators, transient energy storage, exact conservation ledgers, finite multishell propagation, a classical parent action, equations obtained by variation, and order-sensitive causal memory. Determinism does not reduce the construction to a static geometry: different initial states, primary selections, connection topologies, and route orders produce different currents, energy distributions, propagation histories, and later responses. The increase of spatial rank changes the class of admissible motion. Rank one permits bipolar transport, linear reversal, and counter-rotation. Rank two permits non-collinear rotation, oriented circulation, and curl-like response. Rank three permits spherical closure, surface flux, volume transport, and a three-axis rotational field. One causal rank permits delay, propagation, causal depth, and history accumulation. Space, causal time, and field evolution are therefore generated within one dimensional-genesis process. Three equivalent Gamma route channels and two bipolar matter channels form a five-component internal carrier. Its twenty-four traceless generators decompose as 24 = 8 + 3 + 1 + 12, supplying an internal SU (3) × SU (2) × U (1) field dictionary and twelve bridge generators. Primitive-event exchange fixes the relative weights of one classical parent action, leaving no adjustable dimensionless ratio. Exact variation produces the declared matter, Maxwell, weak SU (2), strong SU (3) Yang–Mills, and Palatini–Einstein sectors. The Maxwell sector contains one gauge-null direction and exactly two transverse propagating modes. The electromagnetic, weak, strong, and gravitational sectors are consequently presented as distinct dynamical variations and projection readouts of one dimensional-genesis structure rather than as four unrelated formulas. Signed endpoint polarity supplies the electromagnetic readout, reclosure conversion supplies the weak readout, inward mirror-depth gradient supplies the strong readout, and unsigned global closure burden supplies the gravitational readout. The four selected interaction-scale comparisons produce sealed raw differences of 0. 000222275616% for the electromagnetic fine-structure constant, 0. 001961707470% for the strong coupling at the Z-boson scale, 0. 000898057997% for the Fermi constant, and 0. 004058958230% for the inverse proton gravitational coupling. Across twenty-four numerical readout targets, the mean raw difference is 0. 001364172097%, the maximum raw difference is 0. 004503326180%, and the maximum dimension-vector error is 0%. The current reproducibility master is CODE 8100-674. It is a single self-contained cumulative detailed-evidence program that executes fifteen named evidence blocks and prints 4, 316 terminal evidence leaves or rows in a deterministic output of 7, 870 lines. The output includes twenty-four direct interaction-scale targets, zero-whole bipolar algebra, reference-origin fields, integer mirror-depth modes, quantum-jump interfaces, a thirteen-body thirty-six-contact rotational network, rotational energy partition, multishell propagation, an invariant long-wave speed, the Lorentzian metric, complete Whitney–Hodge assemblies, gauge identities, seventy-two primary–secondary direction cases, conservative and damped 5: 5 trajectories, Maxwell time transfer, the unified parent action and its variational sectors, clock-free causal-depth generation, and the finite Gamma causal-memory algebra. The scalar Gamma balance variable stores mandatory transient information during an incomplete transfer and returns to zero after complete reclosure. Persistent history is carried by noncommuting route products. Reversing the order of two route events can produce the same macroscopic 5: 5 reclosure and the same causal-depth address while leaving distinct internal holonomies. A common later probe can distinguish the previous causal orders. The resulting history carrier is an internal state fiber attached to an event and is not introduced as a fifth spacetime coordinate. The strict native execution reads no previous code, previous output, CSV, JSON, or ZIP artifact. It uses no optimizer, fitting procedure, external clock, continuous free dimensionless parameter, or logarithmic, exponential, or trigonometric runtime operation. Historical downstream routines involving scale evolution are retained only for provenance and remain quarantined from the strict native proof spine. Two independent executions produce identical output. The result is an internally closed finite classical theorem under the explicitly declared zero-balance, rank-lift, locality, minimality, primitive-exchange, and one-global-decoder constitution. Internal closure means that the declared variables, operators, conservation relations, field dictionary, parent action, variational equations, causal-time construction, and detailed runtime evidence close without an adjustable dimensionless ratio or external artifact dependency. This internal closure is not presented as completed empirical proof of a final theory of nature. Quantum anomaly cancellation, the origin of three matter generations, confinement and the mass gap, loop renormalization, absolute SI decoding, precision scattering predictions, nonlinear gravitational solutions, distinctive parameter-free experimental signatures of the Gamma connection, and independent experimental validation remain explicit continuation and falsification boundaries. =================================================================== Related records Full-version data manuscript: https: //doi. org/10. 5281/zenodo. 20731530 Submission-oriented version: https: //doi. org/10. 5281/zenodo. 20802008 JS-SH route-gated Schrodinger recovery equation manuscript: https: //doi. org/10. 5281/zenodo. 20849560 Element-wave stand-alone manuscript: https: //doi. org/10. 5281/zenodo. 21100987 Dimensional-Genesis Dynamics: A Unified Classical Origin of the Four Fundamental Interactions: https: //doi. org/10. 5281/zenodo. 21127052 =================================================================== Keywords CRGE; JS-SH; gravity; four interactions; unified field theory; dimensionless unification; closed wave; mirror depth; anti-infinity closure; dimensional bridge operator; SH distance operator; energy-distance ratio; action lock; fine-structure constant; strong coupling; weak mixing angle; finite-core black hole; element prediction; QD7; QD8; CODE 8100 ================================================================== UPDATE CRGEGRAVITYFOURFORCEORIGINLAYERV3MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV4INTEGRATEDORIGINLAYERMANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV5DOI₂1200354MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV28DOI₂1205819MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV29DOI₂1220007MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV31DOI₂1221535MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV34REPAIREDV31FORMATDOI₂1223053MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV36DOI₂1127052MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV38DOI₂1127052MANUSCRIPT CRGEGRAVITYFOURFORCEORIGINLAYERV41INTEGRATEDSTANDALONEMANUSCRIPT CRGEGRAVITYFOURFORCEV47DOWNSTREAMPROOFCOMPLETIONMANUSCRIPT ======================= SINGLEDIMENSIONTRANSFORMERLEDGERFOURINTERACTIONSCALESMAINMANUSCRIPTAUTHORNOTEBOXED SINGLEDIMENSIONTRANSFORMERLEDGERFOURINTERACTIONSCALESSUPPLEMENTARYFULLPROOFLEDGERAUTHORNOTEBOXED ======================= SINGLEDIMENSIONTRANSFORMERLEDGERFOURINTERACTIONSCALESV5MAINMANUSCRIPT SINGLEDIMENSIONTRANSFORMERLEDGERFOURINTERACTIONSCALESV5SUPPLEMENTARYINFORMATION =======================
S. W. Hong (Sun,) studied this question.