Difference between revisions of "Quantum Nonlocal Action and Inertial Mass from Mach's Conjecture"

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==Abstract==
 
==Abstract==
  
The Mach momentum qA of a particle, the product of its conjectured Mach charge q and the ambient Mach vector potential A, is the homolog of its electromagnetic inductive momentum. If the particle's velocity is , its ?inertial mass? is the ratio m = qA/v. It is conjectured that the field of the Mach charge is propagated at hyperluminal velocity, causing physical relations underlying quantum laws presently understood as ?acausality,? ?nonlocal action,? or ?action-at-a-distance.?[[Category:Scientific Paper]]
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The Mach momentum qA of a particle, the product of its conjectured Mach charge q and the ambient Mach vector potential A, is the homolog of its electromagnetic inductive momentum. If the particle's velocity is , its ?inertial mass? is the ratio m = qA/v. It is conjectured that the field of the Mach charge is propagated at hyperluminal velocity, causing physical relations underlying quantum laws presently understood as ?acausality,? ?nonlocal action,? or ?action-at-a-distance.?
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[[Category:Scientific Paper|quantum nonlocal action inertial mass mach 's conjecture]]

Latest revision as of 10:57, 1 January 2017

Scientific Paper
Title Quantum Nonlocal Action and Inertial Mass from Mach\'s Conjecture
Author(s) Robert B Driscoll
Keywords inertial mass, quantum nonlocal action, hyperluminal velocity, Mach's conjecture
Published 1989
Journal Physics Essays
Volume 2
Number 3
Pages 237-238

Abstract

The Mach momentum qA of a particle, the product of its conjectured Mach charge q and the ambient Mach vector potential A, is the homolog of its electromagnetic inductive momentum. If the particle's velocity is , its ?inertial mass? is the ratio m = qA/v. It is conjectured that the field of the Mach charge is propagated at hyperluminal velocity, causing physical relations underlying quantum laws presently understood as ?acausality,? ?nonlocal action,? or ?action-at-a-distance.?