Difference between revisions of "Deriving an Atom?fs Stability from Classical Mechanics and from the Special Theory of Relativity"

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==Abstract==
 
==Abstract==
  
It is not possible to establish the ground state energy of a hydrogen atom without quantum mechanics. However, for the atom's stability only, this can be explained even without using quantum mechanics. Even according to classical considerations, our discussion reveals that there exists an off-limit boundary r within the electron inside a hydrogen atom.[[Category:Scientific Paper]]
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It is not possible to establish the ground state energy of a hydrogen atom without quantum mechanics. However, for the atom's stability only, this can be explained even without using quantum mechanics. Even according to classical considerations, our discussion reveals that there exists an off-limit boundary r within the electron inside a hydrogen atom.
  
[[Category:Relativity]]
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[[Category:Scientific Paper|deriving atom fs stability classical mechanics special theory relativity]]
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[[Category:Relativity|deriving atom fs stability classical mechanics special theory relativity]]

Latest revision as of 19:26, 1 January 2017

Scientific Paper
Title Deriving an Atom?fs Stability from Classical Mechanics and from the Special Theory of Relativity
Read in full Link to paper
Author(s) Koshun Suto
Keywords Atom?fs Stability, Special Theory of Relativity, Bohr?fs classical quantum theory.
Published 2006
Journal General Science Journal
No. of pages 6

Read the full paper here

Abstract

It is not possible to establish the ground state energy of a hydrogen atom without quantum mechanics. However, for the atom's stability only, this can be explained even without using quantum mechanics. Even according to classical considerations, our discussion reveals that there exists an off-limit boundary r within the electron inside a hydrogen atom.