Difference between revisions of "Application of Bi-Quaternions In Physics"

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This paper introduces a new bi-quaternion notation and applies this notation to electrodynamics. A set of extended MAXWELL equations and other fundamental equations of electrodynamics are derived. By applying the LORENTZ condition, these equations reduce to the classical form.  Additionally the bi-quaternion notation allows a compact formulation of SRT. Furthermore an application of bi-quaternions in other disciplines of physics as mechanics (dynamics) is shown.
 
This paper introduces a new bi-quaternion notation and applies this notation to electrodynamics. A set of extended MAXWELL equations and other fundamental equations of electrodynamics are derived. By applying the LORENTZ condition, these equations reduce to the classical form.  Additionally the bi-quaternion notation allows a compact formulation of SRT. Furthermore an application of bi-quaternions in other disciplines of physics as mechanics (dynamics) is shown.
  
[[Category:Scientific Paper]]
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[[Category:Scientific Paper|application bi-quaternions physics]]
  
 
[[Category:Electrodynamics]]
 
[[Category:Electrodynamics]]

Revision as of 10:01, 1 January 2017

Scientific Paper
Title Application of Bi-Quaternions In Physics
Read in full Link to paper
Author(s) Andre Waser
Keywords {{{keywords}}}
Published 2000
Journal None
No. of pages 39

Read the full paper here

Abstract

This paper introduces a new bi-quaternion notation and applies this notation to electrodynamics. A set of extended MAXWELL equations and other fundamental equations of electrodynamics are derived. By applying the LORENTZ condition, these equations reduce to the classical form. Additionally the bi-quaternion notation allows a compact formulation of SRT. Furthermore an application of bi-quaternions in other disciplines of physics as mechanics (dynamics) is shown.