Cosmoration: An Alternative Cosmogony Hypothesis Based on Dynamic Friction and Phase Transition

Abstract

This paper presents an alternative cosmogony hypothesis that examines star and planet formation outside the gravitational collapse paradigm, within a framework of dynamic phase transition and cyclical friction. The model, termed "Cosmoration," grounds the origin of the universe in the first vibration arising from thermal expansion differentials in an extremely cold and static material environment, explains star formation through the kinetic energy of rotating vortices and phase transitions, and attributes planetary formation to liquid plasma masses ejected from the star itself via thermal shock explosions. The model is examined in comparative terms against established paradigms such as post–Big Bang cosmology, nebular theory, and black hole singularity, and produces predictions consistent with existing observational data. The hypothesis also examines the limits of astronomical observation arising from reference-frame differences and light-travel time. It argues that the observed universe is not a single simultaneous present, but a composite image formed from different historical states and relative motions. Version v3 introduces a substantial structural revision of the Cosmoration hypothesis. It expands the treatment of temperature-, pressure-, and environment-dependent phase transitions; adds the Observer Paradox, reference-frame illusions, oppositely perceived motion, light-travel delay, and the non-simultaneous observable universe; and reorganizes the manuscript for clearer conceptual continuity. This record includes the revised English manuscript and its corresponding Turkish-language edition.