An Ontology of Nature with Local Causality, Parallel Lives, and Many Relative Worlds

Foundations of Physics 48 (12):1698-1730 (2018)
  Copy   BIBTEX

Abstract

Parallel lives is an ontological model of nature in which quantum mechanics and special relativity are unified in a single universe with a single space-time. Point-like objects called lives are the only fundamental objects in this space-time, and they propagate at or below c, and interact with one another only locally at point-like events in space-time, very much like classical point particles. Lives are not alive in any sense, nor do they possess consciousness or any agency to make decisions—they are simply point objects which encode memory at events in space-time. The only causes and effects in the universe occur when lives meet locally, and thus the causal structure of interaction events in space-time is Lorentz invariant. Each life traces a continuous world-line through space-time, and experiences its own relative world, fully defined by the outcomes of past events along its world-line, which are encoded in its external memory. A quantum field comprises a continuum of lives throughout space-time, and familiar physical systems like particles each comprise a sub-continuum of the lives of the field. Each life carries a hidden internal memory containing a local relative wavefunction, which is a local piece of a pure universal wavefunction, but it is the relative wavefunctions in the local memories throughout space-time which are physically real in PL, and not the universal wavefunction in configuration space. Furthermore, while the universal wavefunction tracks the average behavior of the lives of a system, it fails to track their individual dynamics and trajectories. There is always a preferred separable basis, and for an irreducible physical system, each orthogonal term in this basis is a different relative world—each containing some fraction of the lives of the system. The relative wavefunctions in the lives’ internal memories govern which lives of different systems can meet during future local interactions, and thereby enforce entanglement correlations—including Bell inequality violations. These, and many other details, are explored here, but several aspects of this framework are not yet fleshed out, and work is ongoing.

Links

PhilArchive



    Upload a copy of this work     Papers currently archived: 92,471

External links

Setup an account with your affiliations in order to access resources via your University's proxy server

Through your library

Similar books and articles

The Structure of a Quantum World.Jill North - 2013 - In Alyssa Ney & David Albert (eds.), The Wave Function: Essays on the Metaphysics of Quantum Mechanics. Oxford University Press. pp. 184-202.
The Notion of Quantum Time.Sergey Aityan - 2012 - Ontology Studies: Cuadernos de Ontología:303-328.
Newton's views on space, time, and motion.Robert Rynasiewicz - 2008 - Stanford Encyclopedia of Philosophy.
Consciousness and special relativity.F. de Silva - 1996 - IEEE Engineering in Medicine and Biology Magazine 15:21-26.

Analytics

Added to PP
2018-10-23

Downloads
34 (#474,174)

6 months
12 (#223,952)

Historical graph of downloads
How can I increase my downloads?

Author's Profile

Mordecai Waegell
Chapman University

Citations of this work

Many-worlds interpretation of quantum mechanics.Lev Vaidman - 2008 - Stanford Encyclopedia of Philosophy.
Metaphysical indeterminacy in Everettian quantum mechanics.David Glick & Baptiste Le Bihan - 2024 - European Journal for Philosophy of Science 14 (3):1-22.
Reformulating Bell's theorem: The search for a truly local quantum theory.Mordecai Waegell & Kelvin J. McQueen - 2020 - Studies in History and Philosophy of Science Part B: Studies in History and Philosophy of Modern Physics 70:39-50.

Add more citations