Essay Abstract
We combine elements of Boltzmann's statistical account of thermodynamic processes in the second law, Shannon's theory of communication, and a background-free conceptualization of time, where the arrival and departure of information carried by photons defines an ordering of events which are perpetually evolving and reversible (therefore perpetually re-ordering) inside isolated entangled systems. This becomes progressively irreversible as decoherence ebbs and flows with the environment. Our argument brings a new information-theoretic quality to the nature of an interaction. We use this concept in the context of a perpetual symmetric exchange of information between atoms by a photon, where the direction is (at the microscopic level) predictable, yet observation remains non-deterministic because we cannot know (in an individual measurement) how many times a reversal takes place without disturbing the system. The absurd idea is that reality is timeless inside entangled systems, i.e., it continually evolves and cycles through its recurrence, defined by the available number of states. This symmetry can however be broken at the macroscopic level by an observer preparing the system for measurement, triggering causality to select a direction for information and energy to flow. We introduce subtime (ts) as a reversible information interchange within an entangled system and re-examine the conclusion dismissed by Einstein, Podolsky & Rosen (EPR). We accept the principles of relativity and the constancy of the speed of light c (in ts), but question our ability to measure c with experiments that presume a classical (Tc) smooth, monotonic and irreversible background in time. We offer an alternative view in the spirit of Boltzmann indistinguishability: in addition to the indiscernability of individual particles with identical properties we recognize that states previously visited within a quantum system are indistinguishable from reversing subtime to that prior state.
Author Bio
Paul Borrill is President & Founder of REPLICUS Research and a Technical/Scientific Consultant to government and major enterprises on the foundations of storage, networking and security Infrastructures. Paul has been intrigued most of his adult career by the nature of computation, information and time; from their scientific foundations to their practical applications in engineering large scale disaster resilient IT infrastructures. Paul holds a B.Sc with Honors in Physics from the University of Manchester, a Ph.D. in Physics from University College London and is a graduate of the Stanford Executive Program.