Model
Digital Document
Publisher
Florida Atlantic University
Description
A 4N-dimensional formalism is developed and a corresponding space is found.
The necessity of coupling the particle's proper times to one parameter is
discussed. The appropriate conditions and constraints which relate this
space to the ordinary 4-space are found. The transformation properties which
are consistent with general 4-space transformations are determined. These
transformation properties are used to determine the form of the 4x4 matrices
making up the 4N-dimensional metric tensor. The form of these matrices
indicates they represent interactions between particles. The diagonal
matrices are shown to represent gravitational interaction and the off-diagonal
matrices to represent other interparticle interactions. A metric theory to
cover all interparticle interactions is then proposed. The equations of
motion for one particle in this 4N-dimensional space are found. These
equations are then related to the motion of N interacting particles in 4- space .
Finally, an approximation procedure is applied to determine the first order
equations of motion.
The necessity of coupling the particle's proper times to one parameter is
discussed. The appropriate conditions and constraints which relate this
space to the ordinary 4-space are found. The transformation properties which
are consistent with general 4-space transformations are determined. These
transformation properties are used to determine the form of the 4x4 matrices
making up the 4N-dimensional metric tensor. The form of these matrices
indicates they represent interactions between particles. The diagonal
matrices are shown to represent gravitational interaction and the off-diagonal
matrices to represent other interparticle interactions. A metric theory to
cover all interparticle interactions is then proposed. The equations of
motion for one particle in this 4N-dimensional space are found. These
equations are then related to the motion of N interacting particles in 4- space .
Finally, an approximation procedure is applied to determine the first order
equations of motion.
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