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On Self-Collapsing Wavefunctions and the Fine Tuning of the Universe

Charles V. Burton, H. Isaaks

Published Dec 1, 2014• 0 citations
OpenAlex

Abstract

A new variation on the Copenhagen interpretation of quantum me-chanics is introduced, and its effects on the evolution of the Universe are reviewed. It is demonstrated that this modified form of quantum mechanics will produce a habitable Universe with no required tun-ing of the parameters, and without requiring multiple Universes or external creators. 1

Related papers

1 Statistical Evidence Against Simple Forms of Wavefunction Collapse ∗

Abstract If the initial quantum state of the universe is a multiverse superposition over many different sets of values of the effective coupling ‘constants’ of physics, and if this quantum state collapses to an eigenstate of the set of coupling ‘constants’ with a probability purely proportional to the absolute square of the amplitude (with no additional factor for something like life or consciousness), then one should not expect that the coupling ‘constants’ would be so biophilic as they are observed to be. Therefore, the observed biophilic values (apparent fine tuning) of the coupling ‘constants’ is statistical evidence against such simple forms of wavefunction collapse.

•Jan 1, 2011•0 citations

Reality facing quantum mechanics

‎Louis Marchildon

All investigators working on the foundations of quantum mechanics agree that the theory has profoundly modified our conception of reality. But there ends the consensus. The unproblematic formalism of the theory gives rise to a number of very different interpretations, each of which has consequences on the notion of reality. This paper analyses how the Copenhagen interpretation, von Neumann's state vector collapse, Bohm and de Broglie's pilot wave and Everett's many worlds modify, each in its own way, the classical conception of reality, whose local character, in particular, requires revision.

arXiv:1906.05456•Jun 13, 2019•0 citations

Single universe or multiple universes

Muhammad Suhail Zubairy

Abstract There is a consensus among physicists about the outcome of any experiment. However, there continues to be discussion about the interpretation of these results. At the heart of this discussion is the so-called measurement problem. The interaction of the particles with the measurement apparatus forms the measurement problem that has haunted physicists since the very early days of quantum mechanics. The problem is that quantum mechanics only describes the evolution of the wavefunction with time, but does not answer about the interaction with the measurement apparatus. These issues, related to the measurement problem, have led physicists to come up with different interpretations. Many possibilities are discussed. One of the most amazing resolutions of the measurement problem is via the possibility of the existence of multiple universes. This many-worlds approach is a desperate attempt to solve the measurement problem.

•Sep 14, 2023•0 citations

Quantum Theory in the Context of a “block” Universe Model

Reeve Armstrong

The conclusion is drawn; from considering the role of wavefunction collapse in a universe in which there is no universally held present or progression of time that a new, novel interpretation of Quantum Theory is needed in which events in a paticular space-time become casually disconnected from space-times which would typically be considered to casually follow and precede the space-time in question, and in which all possible space-times are realised.

•Jun 1, 2012•0 citations

On the causal efficacy of qualia: Philosophical zombies are fine-tuned, and implications for the quantum measurement theory

Brownstein, Adam

We suggest that qualia have a causally efficacious role in quantum mechanics; an occurrence which explains how information about qualia can enter the physical environment. This is compatible with the unitary time-evolution of the quantum state if qualia are understood as effecting the beables of the de Broglie-Bohm interpretation or wavefunction collapse process rather than at the wavefunction level. We furthermore suggest that not all quantum states are consistent with qualia. If this is the case, the standard wavefunction collapse postulates of the Copenhagen interpretation will fail to select only those states which are consistent with qualia, and the Born-rule must be modified if wavefunction collapse is to generate the correct dynamical histories across time. This new model which includes qualia clearly demonstrates how non-linear and self-referential phenomena can occur, despite the linear, deterministic time-evolution of the wavefunction. We reject the notion that physical matter operates independently of qualia, and find that the main evidence for epiphenomenalism i.e. the causal closure of the underlying physical time-evolution, has failed to take into consideration fine-tuning of the microcausal degrees of freedom. We propose that the philosophical zombie argument is fine-tuned in the initial conditions, thus making philosophical zombies statistically unlikely if the fine-tuning is removed. We furthermore suggest the presence of fine-tuning can be used as a test for consciousness in the general case. This explains why some classical processes such as computer circuits may never be conscious; because they lack the capacity for fine-tuning when the dynamics is reversed.

arXiv:2502.07865•Feb 11, 2025•0 citations

A symmetrical interpretation of the Klein-Gordon equation

Michael B. Heaney, See Profile

Abstract. This paper presents a new Symmetrical Interpretation (SI) of relativistic quantum me-chanics which postulates: quantum mechanics is a theory about complete experiments, not particles; a complete experiment is maximally described by a complex transition amplitude density; and this transition amplitude density never collapses. This SI is compared to the Copenhagen Interpretation (CI) for the analysis of Einstein’s bubble experiment. This SI makes several experimentally testable predictions that differ from the CI, solves one part of the measurement problem, resolves some in-consistencies of the CI, and gives intuitive explanations of some previously mysterious quantum effects. 1.

•Jan 1, 2013•9 citations
A new variation on the Copenhagen interpretation of quantum me-chanics is introduced, and its effects on the evolution of the Universe are reviewed. It is demonstrated that this modified form of quantum mechanics will produce a habitable Universe with no required tun-ing of the parameters, and without requiring multiple Universes or external creators. 1
Abstract If the initial quantum state of the universe is a multiverse superposition over many different sets of values of the effective coupling ‘constants’ of physics, and if this quantum state collapses to an eigenstate of the set of coupling ‘constants’ with a probability purely proportional to the absolute square of the amplitude (with no additional factor for something like life or consciousness), then one should not expect that the coupling ‘constants’ would be so biophilic as they are observed to be. Therefore, the observed biophilic values (apparent fine tuning) of the coupling ‘constants’ is statistical evidence against such simple forms of wavefunction collapse.
All investigators working on the foundations of quantum mechanics agree that the theory has profoundly modified our conception of reality. But there ends the consensus. The unproblematic formalism of the theory gives rise to a number of very different interpretations, each of which has consequences on the notion of reality. This paper analyses how the Copenhagen interpretation, von Neumann's state vector collapse, Bohm and de Broglie's pilot wave and Everett's many worlds modify, each in its own way, the classical conception of reality, whose local character, in particular, requires revision.
Abstract There is a consensus among physicists about the outcome of any experiment. However, there continues to be discussion about the interpretation of these results. At the heart of this discussion is the so-called measurement problem. The interaction of the particles with the measurement apparatus forms the measurement problem that has haunted physicists since the very early days of quantum mechanics. The problem is that quantum mechanics only describes the evolution of the wavefunction with time, but does not answer about the interaction with the measurement apparatus. These issues, related to the measurement problem, have led physicists to come up with different interpretations. Many possibilities are discussed. One of the most amazing resolutions of the measurement problem is via the possibility of the existence of multiple universes. This many-worlds approach is a desperate attempt to solve the measurement problem.
We suggest that qualia have a causally efficacious role in quantum mechanics; an occurrence which explains how information about qualia can enter the physical environment. This is compatible with the unitary time-evolution of the quantum state if qualia are understood as effecting the beables of the de Broglie-Bohm interpretation or wavefunction collapse process rather than at the wavefunction level. We furthermore suggest that not all quantum states are consistent with qualia. If this is the case, the standard wavefunction collapse postulates of the Copenhagen interpretation will fail to select only those states which are consistent with qualia, and the Born-rule must be modified if wavefunction collapse is to generate the correct dynamical histories across time. This new model which includes qualia clearly demonstrates how non-linear and self-referential phenomena can occur, despite the linear, deterministic time-evolution of the wavefunction. We reject the notion that physical matter operates independently of qualia, and find that the main evidence for epiphenomenalism i.e. the causal closure of the underlying physical time-evolution, has failed to take into consideration fine-tuning of the microcausal degrees of freedom. We propose that the philosophical zombie argument is fine-tuned in the initial conditions, thus making philosophical zombies statistically unlikely if the fine-tuning is removed. We furthermore suggest the presence of fine-tuning can be used as a test for consciousness in the general case. This explains why some classical processes such as computer circuits may never be conscious; because they lack the capacity for fine-tuning when the dynamics is reversed.
Abstract. This paper presents a new Symmetrical Interpretation (SI) of relativistic quantum me-chanics which postulates: quantum mechanics is a theory about complete experiments, not particles; a complete experiment is maximally described by a complex transition amplitude density; and this transition amplitude density never collapses. This SI is compared to the Copenhagen Interpretation (CI) for the analysis of Einstein’s bubble experiment. This SI makes several experimentally testable predictions that differ from the CI, solves one part of the measurement problem, resolves some in-consistencies of the CI, and gives intuitive explanations of some previously mysterious quantum effects. 1.