High Energy Dimensioning the Quantum Space-Time of the Electron
Alfred Bennun · viXra · 2020
The photon-electron interaction allows to describe a relativistic dynamics of the quantum absorption-emission of the electron, which could provide a description of the primordial universe and the arrow of time, applied to quantum computers, electron microscope and other technologies. The alternatives descriptions for the wave-particle duality have variable interpretations, when came to describe how with a single constitutive mechanism, the photon shows changes on the relationship between electric and magnetic phases, which in the space-time are structured as differentiable responses when acting on a target, manifesting properties of particles (photoelectric), or a wave (in the double-slit experiment). By analyzing the quantum absorption-emission of the electron, quantum properties emerge at the high and low energy extremes. The image sequence of the topographic projection of the unidirectional wave function, suggest that within the particle the incorporated energy, produce orderly patterns conforming energy convection cells of quasi-fractal periodicity. This patterns, in the direction of absorption shows increasing energy levels, decreasing the contour that could be related by the relationship that decreasing entropy increase curvatures, until the Planck limit. If the sequence is examined in reverse, or emission, also shows a proportional correlation between relativistic mass or potential-energy and the curvature of space. Emission increasing entropy, eventually leads to decreasing curvature of the particle, which is revealed by the tendency of internal contour force-lines to become parallel. Scale extrapolation allows postulating, that increasing entropy by decreasing curvature, allows relating space expansion to the universe flatness.