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| url = [http://www.naturalphilosophy.org/pdf/abstracts/abstracts_6562.pdf Link to paper]
| url = [http://www.naturalphilosophy.org/pdf/abstracts/abstracts_6562.pdf Link to paper]
| author = [[Nina B Sotina]]
| author = [[Nina B Sotina]]
| keywords = Ether, particle
| published = 2012
| published = 2012
| journal = [[Proceedings of the NPA]]
| journal = [[Proceedings of the NPA]]
| volume = [[9]]
| volume = 9
| num_pages = 7
| num_pages = 7
| pages = 572-578
| pages = 572-578
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==Abstract==
==Abstract==


In the present work the author suggests a to the idea of "hidden variables" as a physical field (ether). It is shown below that the Schr?dinger equation can be derived from the deterministic laws of classical mechanics under the assumption that the ether exists. The reasoning is based to a great extent on the works of N.G. Chetaev. Formulas derived in the present work for the velocity of an elementary particle and for the forces exerted on the particle by the ether coincide precisely with those derived by V.A. Kotel'nikov using the standard probabilistic interpretation of the Schr?dinger equation. Therefore, the proposed classical approach agrees with the probabilistic one, and hence with standard experiments. The mathematical development of the proposed model when applied to an atom leads to the idea that structures are formed in the ether inside the atom. From the standpoint of this model, De Broglie's ?law of phase harmony? has a new physical interpretation.
In the present work the author suggests a to the idea of "hidden variables" as a physical field (ether). It is shown below that the Schrödinger equation can be derived from the deterministic laws of classical mechanics under the assumption that the ether exists. The reasoning is based to a great extent on the works of N.G. Chetaev. Formulas derived in the present work for the velocity of an elementary particle and for the forces exerted on the particle by the ether coincide precisely with those derived by V.A. Kotel'nikov using the standard probabilistic interpretation of the Schrödinger equation. Therefore, the proposed classical approach agrees with the probabilistic one, and hence with standard experiments. The mathematical development of the proposed model when applied to an atom leads to the idea that structures are formed in the ether inside the atom. From the standpoint of this model, De Broglie's "law of phase harmony" has a new physical interpretation.


[[Category:Scientific Paper|derivation schrodinger equation laws classical mechanics taking account ether]]
[[Category:Scientific Paper|derivation schrodinger equation laws classical mechanics taking account ether]]


[[Category:Structure|derivation schrodinger equation laws classical mechanics taking account ether]]
[[Category:Structure|derivation schrodinger equation laws classical mechanics taking account ether]]

Latest revision as of 13:53, 22 July 2026

Scientific Paper
TitleDerivation of the Schrodinger Equation from the Laws of Classical Mechanics Taking into Account the Ether
Read in fullLink to paper
Author(s)Nina B Sotina
KeywordsEther, particle
Published2012
JournalProceedings of the NPA
Volume9
No. of pages7
Pages572-578

Read the full paper here

Abstract

In the present work the author suggests a to the idea of "hidden variables" as a physical field (ether). It is shown below that the Schrödinger equation can be derived from the deterministic laws of classical mechanics under the assumption that the ether exists. The reasoning is based to a great extent on the works of N.G. Chetaev. Formulas derived in the present work for the velocity of an elementary particle and for the forces exerted on the particle by the ether coincide precisely with those derived by V.A. Kotel'nikov using the standard probabilistic interpretation of the Schrödinger equation. Therefore, the proposed classical approach agrees with the probabilistic one, and hence with standard experiments. The mathematical development of the proposed model when applied to an atom leads to the idea that structures are formed in the ether inside the atom. From the standpoint of this model, De Broglie's "law of phase harmony" has a new physical interpretation.