Microphysics of the MeTiS Framework: Synchronization, Mass, and Decays

We present a complete and autonomous formulation of the microphysics of the MeTiS framework (Matter–Energy Transmutation into Space).The construction explicitly distinguishes two coherent conceptual levels: (i) the ontological formation of elementary matter states during the fragmentation phase, and (ii) their observational description as measured by an observer fully synchronized with the current cosmological Tick. Within this framework, particle mass does not represent an intrinsic amount of energy, but emerges as an observable effect of relative synchronization delay in the geometric release of energy into space. A discrete synchronization level, determined by the number of obstructed spatial release channels, naturally accounts for particle families, mass hierarchies, and decay patterns. Elementary decays are interpreted as transitions between synchronization levels, with beta decay presented as a paradigmatic example. The role of intermediate bosons in the Standard Model is preserved as an effective local mediation of globally imposed synchronization transitions. The framework provides a unified geometric interpretation of leptons, quarks, confinement, and extreme states such as black holes, without introducing new substances or modifying established dynamics. Explicit criteria of falsifiability are formulated.