Initiation of the Dissipative Arrow of Time via Bulk-Gravity: A Topological Resolution to the Fine-Tuning Problem

This paper introduces a novel cosmological framework that explains the evolution of the universe as a deterministic topological process rather than a stochastic event. By extending classical spacetime models into a higher-dimensional bulk, this work presents a mechanism where a transdimensional gravitational impulse triggers the Big Bang. The framework, based on Dissipative Information Topology (DIT), resolves the long-standing fine-tuning paradox by demonstrating that fundamental physical constants are not arbitrarily dialed parameters, but geometric inevitabilities arising from the initial symmetry-breaking event. A central achievement of this work is the derivation of galactic rotation curves without the need for non-baryonic dark matter. The author provides a mathematical proof that the topological tension resulting from the universe's continuous symmetry loss naturally reproduces the observed Baryonic Tully-Fisher Relation. Key findings include: A deterministic trigger mechanism for the Big Bang through transdimensional gravitational perturbation The resolution of the cosmological fine-tuning problem through geometric topological ratios A dark matter-free explanation for flat galactic rotation curves The derivation of fundamental particle mass bounds as geometric eigenvalues of the broken symmetry lattice This work offers a robust, self-contained theoretical architecture that bridges the gap between fundamental particle physics and macroscopic cosmological observations, providing a new perspective on the nature of information, entropy, and the arrow of time.