The Quantum Oscillatory Modulated Potential - Part II - The Stability of the Hydrogen Atom

Abstract

The purpose of this work is to show the stability of the hydrogen atom with useing the Quantum Oscillatory Modulated Potential and the Heisenberg equations of motion, postulating that the electron in the hydrogen atom is behaving as a quantum harmonic oscillator. With the electron confined between two potential barriers, created by the new potential function, we are considering that at absolute temperature the power absorbed or emitted by the electron per unit of time can be used to determine the zero point energy of the oscillator. Assuming that electron is only exchanging energy with the nucleus of the atom we are making use of the operators of creation and annihilation of a photon to explain how the energy between the proton and the electron can be exchanged to keep the atom a stable system.

The Quantum Oscillatory Modulated Potential—Electric Field Wave Packets Produced by Electrons

“…Consequently, the classical Coulomb electric field, as formulated by Equation (22), is not appropriate to represent the electric field in the vicinity of a microscopic electric particle. The same occurs with the classical Coulomb potential that is not suitable for describing the energy interaction between two microscopic electric charges [6]. This is a rather surprising revelation, since this interaction potential has been used in physics and chemistry for more than a century.…”