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20012019
most citedEntwined Paths, Difference Equations and the Dirac Equation

37 citations · 86 across the 7 of their papers we have counts for

collaborators

7 papers

physics.hist-ph2019★ 3 cited

Statistical Mechanics and the Ghosts of Departed Quantities

G. N. Ord

Quantum mechanics appears to contain ghosts from both classical statistical mechanics and special relativity. On one hand, both the Dirac and Schrödinger equations have classical a…

quant-ph2017★ 2 cited

Superposition as a Relativistic Filter

G. N. Ord

By associating a binary signal with the relativistic worldline of a particle, a binary form of the phase of non-relativistic wavefunctions is naturally produced by time dilation. A…

quant-ph2004★ 5 cited

A physical basis for the phase in Feynman path integration

G. N. Ord, J. A. Gualtieri, R. B. Mann

In the path integral formulation of quantum mechanics, the phase factor Exp[iS(x[t])] is associated with every path x[t]. Summing this factor over all paths yields Feynman's propag…

quant-ph2002★ 37 cited

Entwined Paths, Difference Equations and the Dirac Equation

G. N. Ord, R. B. Mann

Entwined space-time paths are bound pairs of trajectories which are traversed in opposite directions with respect to macroscopic time. In this paper we show that ensembles of entwi…

quant-ph2002★ 9 cited

Entwined Pairs and Schroedinger 's Equation

G. N. Ord, R. B. Mann

We show that a point particle moving in space-time on entwined-pair paths generates Schroedinger's equation in a static potential in the appropriate continuum linit. This provides…

quant-ph2002★ 2 cited

The Dirac Equation in Classical Statistical Mechanics

G. N. Ord

The Dirac equation, usually obtained by `quantizing' a classical stochastic model is here obtained directly within classical statistical mechanics. The special underlying space-tim…

quant-ph2001★ 28 cited

The Feynman Propagator from a Single Path

G. N. Ord, J. A. Gualtieri

We show that it is possible to construct the Feynman Propagator in one dimension, without quantization, from a single continuous space-time path.