03 March 2016 100 6K Report

In classical mechanics, the principle of least action is used to determine a unique trajectory for a particle. However, in quantum mechanics, the Feynman path integral formulation postulates that the transition amplitude is the sum of elementary contributions from all random trajectories. Using elementary differential geometry and de Broglie's relation, it is possible to show that Feynman's postulate of random paths is consistent with the principle of least action. Please refer to my articles ON THE PRINCIPLE OF LEAST ACTION and A TEMPORAL DYNAMICS: A GENERALISED NEWTONIAN AND WAVE MECHANICS on RG for more details.

Furthermore, it can be shown that Einstein's field equations of general relativity derived from Hilbert's action through the principle of least action are also consistent with Feynman's hypothesis for the case n=2 if the energy-momentum tensor is directly related to the metric tensor. And this can also be applied to the temporal version of general relativity. Please refer to my article A THEORY OF TEMPORAL RELATIVITY for more details.

On the other hand, path integral method may be related to the wave-particle duality in quantum physics in which a wavefunction that is used to describe the dynamics of a quantum system can be seen as constraints in addition to an underlying classical dynamics. Please refer to my paper ON THE WAVE-PARTICLE DUALITY IN QUANTUM PHYSICS for more details.

Recently, I have been able to formulate spacetime structures of elementary particles entirely in terms of geometry and topology. It seems the probabilistic characteristics of quantum particles are related directly to the geometric objects that represent them. Please refer to my recent works entitled  SPACETIME STRUCTURES OF QUANTUM PARTICLES and A DERIVATION OF THE RICCI FLOW for more details.

Article On the Principle of Least Action

Working Paper A TEMPORAL DYNAMICS: A GENERALISED NEWTONIAN AND WAVE MECHANICS

Working Paper A THEORY OF TEMPORAL RELATIVITY

Working Paper ON THE WAVE-PARTICLE DUALITY IN QUANTUM PHYSICS

Working Paper SPACETIME STRUCTURES OF QUANTUM PARTICLES

Working Paper A DERIVATION OF THE RICCI FLOW

More Vu B Ho's questions See All
Similar questions and discussions