Keywords: Energy-Gradient-Driven; Computational Universe; Space-Time-Entropy Mapping; Discrete Spacetime; Thermodynamic Time Arrow; Multiplicative Entropy; Space Elementary Quanta(SEQ); Mass-Gravity-SU(3)mechanism; Higgs chiral lock; Analytic Quantum Thermodynamic; Quantum Gravity
A Reductive Spatial-Geometric Ontic Realism:Multiplicative-Entropy-Driven Invariant-Topology Two-Layer Chiral-Space (MITC)
Abstract Current physical understanding of time, the statistical definition of entropy, and the mechanism by which mass generates gravity have made it difficult to arrive at a coherent and unified picture of the cosmos. In response, this paper proposes that time, entropy, gravity, and mass emerge from a single network: a topologically fixed network composed of Space Elementary Quanta (SEQ). Time counts irreversible energy transfers across this network. Entropy is the multiplicative product of all SEQ energies, calculable step by step. Local compression of the network, locked by a chiral Higgs-like mechanism, stores elastic energy as mass, while the surrounding stretched space manifests as gravity. The model predicts a small but measurable difference between the magnetic moments of the positron and the electron. Cosmologically, the universe oscillates through compression and expansion cycles, irreversibly homogenizing energy toward maximum-entropy thermal equilibrium. Dark matter is interpreted as weakly compressed locked states, and dark energy as the network’s ground-state tension. This framework offers a unified, realistic picture of quantum and gravitational phenomena without non-local interactions or statistical approximations.
Previous Version Updating From February 2025: https://doi.org/10.5281/zenodo.14788393
Latest Version: https://doi.org/10.5281/zenodo.20370579