[Research 13] Time in Resonance and Phase Transitions (Irreversibility of Intrinsic State Recovery)

This study proposes a unified interpretative framework that goes beyond conventional views which treat matter, energy, and time as having separate origins, by positioning resonance as the prior condition underlying all physical phenomena. Absolute temperature 0 K (−273.15 °C) is defined as the reference phase of resonance—an adiabatic, dark contraction-pressure state—and it is assumed that deviation from this reference state through rotation and wave formation necessarily accompanies the emergence of events and the onset of time. When resonance becomes locally concentrated under dynamic conditions, it undergoes electronization (particle formation), and when anti-phase closure together with electron saturation is established, materialization occurs. Conversely, when confinement collapses or the confinement phase is altered under extreme thermal or pressure conditions, electrons and bound structures transition into a wave state and disperse spatially. The phenomena observed as light and heat (radiative heat) are thus interpreted not as distinct mediating entities, but as differentiated expressions of a single resonance wave, determined by variations in alignment, density, and phase stability. Furthermore, extreme processes such as nuclear (shell) fission, rearrangement, and fusion are reinterpreted not as simple events of bond creation or destruction, but as transitions and re-confinements of resonance phases. Through this perspective, the study argues that the same transition structure applies continuously from microscopic systems to macroscopic cosmic architectures, suggesting that the universe and material reality can be understood as a single, coherent resonance system.