THERMODYNAMIC QUANTUM BREATHING MODEL and APPLICATIONS TO ASTROPHYSICS & COSMOLOGY

This paper presents a novel cosmological and quantum-field framework in which spacetime emerges macroscopically from the thermodynamic population balance of finite-energy level spin systems. The standard time-like universe is modeled as an inertial phase (OFF) at positive absolute temperatures (T > 0 K), whereas space-like domains are governed by a coherent superfluid phase (ON*) at negative absolute temperatures (T < 0 K). The cosmological singularity is therefore interpreted not as a point of infinite density, but as a global macroscopic phase inversion. The pre-Big Bang state is described as a hyper-coherent vacuum at maximum negative-temperature saturation (β → −∞, ON* = 99.9%) propagating at a spectral limit of 10¹¹c. At the Planck boundary, collective wave-function arrest induces a thermal transition through the infinite-temperature hinge (β = 0), producing a macroscopic “Click In” associated with inflation, spatial expansion, and mass condensation through anchoring friction. The model further proposes a continuous spectral classification of tachyonic states from 1.1c to 10¹¹c and establishes, within the TQB framework, a 20c graviton-flux eigenvalue at 62.5% ON* saturation. This construction is applied to Laplace’s gravitational-aberration paradox, yielding an aberration angle of 20 milliarcseconds in planetary systems. Finally, black holes are modeled as 100% OFF-phase inertial super-capacitors in which quantum-breathing oscillators are structurally locked, while the finite gravitational range arising from thermodynamic scattering is proposed as an alternative account of accelerated cosmic expansion without requiring dark energy. The resulting framework links quantum thermodynamics, gravitation, cosmology, and Planck-scale phase dynamics.