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Quantum General Relativistic Framework 5.x: Postulates on Quantum Evolution and Reduction with Retrocausality for Unconscious Matter.

Suresh K Maran

Published May 4, 2024• 0 citations
Publisher

Abstract

This is the fifth update for the quantum gravity framework project. Based on the first five papers, I finalize a three-set of fundamental postulates for understanding time, quantum reduction, and consciousness from quantum general relativistic concepts, within the canonical quantum gravity framework for unconscious matter. At the beginning, I review the history of quantum measurement research and the models and ideas proposed, in the context of the quantum gravity framework project. Then I introduce a new reduction theory that includes retrocausality and spontaneous reduction, and further concepts to include conscious and unconscious influence. The concept of classicum is introduced for the first time as an analog of quantum to understand reduction, and is used extensively in the second volume to discuss the possible nature of consciousness. Then I discuss in mathematical detail the three postulates in the quantum general relativistic framework. Toward the end, I discuss sample calculations and experimental verifications. I summarize various calculations done in the previous versions of the Quantum General Relativistic Framework. In the companion paper on the physical foundations of consciousness, complementary sets of principles are introduced to explain consciousness using the concepts in this paper. Further advancement of this project requires theoretical and experimental studies, which are discussed in this paper. It is noted that the proper analysis of quantum gravity predicts potential retrocausal effects. The mathematical formulation of retrocausality is discussed. Many of the words in this update are different from the previous versions.

DOI
10.5281/zenodo.20599531

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This is the fifth update for the quantum gravity framework project. Based on the first five papers, I finalize a three-set of fundamental postulates for understanding time, quantum reduction, and consciousness from quantum general relativistic concepts, within the canonical quantum gravity framework for unconscious matter. At the beginning, I review the history of quantum measurement research and the models and ideas proposed, in the context of the quantum gravity framework project. Then I introduce a new reduction theory that includes retrocausality and spontaneous reduction, and further concepts to include conscious and unconscious influence. The concept of classicum is introduced for the first time as an analog of quantum to understand reduction, and is used extensively in the second volume to discuss the possible nature of consciousness. Then I discuss in mathematical detail the three postulates in the quantum general relativistic framework. Toward the end, I discuss sample calculations and experimental verifications. I summarize various calculations done in the previous versions of the Quantum General Relativistic Framework. In the companion paper on the physical foundations of consciousness, complementary sets of principles are introduced to explain consciousness using the concepts in this paper. Further advancement of this project requires theoretical and experimental studies, which are discussed in this paper. It is noted that the proper analysis of quantum gravity predicts potential retrocausal effects. The mathematical formulation of retrocausality is discussed. Many of the words in this update are different from the previous versions.
This is the fifth update for the quantum gravity framework project. The research work has been split into two parts: Part A deals with unconscious matter, while Part B deals with conscious matter. Each has its own abstract. I introduce retrocausality in both. In Part A, based on the first five papers, I finalize a three-set of fundamental postulates for understanding time, quantum reduction, and consciousness from quantum general relativistic concepts. Then I introduce a new reduction theory that includes retrocausality and spontaneous reduction, and further concepts to include conscious and unconscious influence. Then I discuss three postulates in the quantum general relativistic framework. Toward the end, I discuss sample calculations and experimental verifications. I summarize various calculations done in the previous versions of the Quantum General Relativistic Framework. In Part B of this paper, I propose a set of ideas to explain the phenomena of life and consciousness in the universe and their relation to the interpretation of quantum mechanics using my past papers and other important work. Consciousness is described as a result of specific dynamical configurations of matter and fields aided by fundamental properties of nature proposed in this paper. First, I review the various theories of consciousness in current literature and come up with various hypotheses, definitions, and propositions to build a physical theory of consciousness. I propose three sets of postulates on the physical foundations of consciousness from a quantum general relativistic background, using the proposals in part A, to understand time and reduction. Various new concepts are introduced. The concept of classicum is introduced as an analog of quantum, and its relation to conscious being is discussed. Mathematical models for various ideas are discussed. I discuss theory and experiments to verify these.
In this paper, I propose a set of ideas to explain the phenomena of life and consciousness in the universe and their relation to the interpretation of quantum mechanics. Consciousness is described as a result of specific dynamical configurations of matter and fields aided by fundamental properties of nature proposed in this paper. First, I review the various theories of consciousness in current literature and come up with various hypotheses, definitions, and propositions to build a physical theory of consciousness. I introduce the concept of interaction binding of consciousness and discuss in detail how the brain gives rise to consciousness. I propose three sets of postulates on the physical foundations of consciousness from a quantum general relativistic background using the Quantum General Relativistic Framework, 5 proposals to understand time and reduction. A Quantum Reduction Free Will Equivalence Principle is discussed to link quantum reduction to conscious free will. I discuss the potential possibility of retrocausal effects on consciousness-influenced reduction probability. I discuss the concept of conscious being as a more general concept than conscious identity, as separate from conscious content, and its nature. I introduce the concept of classicum as an analog of the quantum, and discuss its relation to consciousness. I discuss mathematical measures to calculate the complexity of harmonic relational structures. I put these together in a set of propositions on the nature of consciousness and its relation to the nature of quantum phenomena. I discuss a mathematical model of interaction binding, and free will. I discuss theory and experiments to verify these
The purpose of this article is to outline a framework of concepts and principles to combine quantum mechanics and general relativity so that time and measurement (reduction) are present as integral parts of the basic foundations. First, the problem of time in quantum gravity and the measurement problem in quantum mechanics are briefly reviewed and the popular proposals to tackle these two problems are briefly discussed. Next, on the already known foundations of quantum mechanics, a framework of principles of dynamics is built: 1) Self-Time Evolution - Newtons first law is reinterpreted to define time, 2) Local Measurement by Local Reduction - Quantum diffusion theory is adapted, and 3) Global Evolution by Global Reduction. Ideas on how to apply the framework to study quantum general relativistic physics are discussed. Further, more general and modified forms of some of these principles are also discussed. The theoretical elements in the framework to be made concrete by further theoretical and experimental investigations are listed.
The work leading to this thesis focuses on assessing and extending quantum theories in order to explore and test their implications across various regimes -- including thermodynamics, semiclassical and quantum gravity scenarios, and the in principle detectable predictions of such theories. The general motivation stems from a basic desire to understand the world form its very foundations. For instance, how can we bridge the gap between what we observe or `perceive' and the fundamental quantum nature in our theories. In particular, this work originated from the search to a better understanding of the nature of time according to our physical theories and the common perception that it invariably `flows' to the future, or, in other words, why do we observe distinct natural processes evolving asymmetrically in time? These motivations led to three distinct, yet interconnected and successful, lines of research, presented here in three separate parts: I. On Possible Detections within Physical Theories; II. On Explaining the Approach to Thermodynamic Equilibrium; and III. Relativistic Collapse Theories and a Self-Consistent Model of Semiclassical Gravity.
The problem of time in quantum gravity is often presented as a consequence of applying quantum theory to general relativity. These notes adopt a broader perspective. We first examine how time enters classical mechanics, relativity, quantum theory, and quantum field theory, distinguishing three principal aspects: causal order, temporal duration, and the present. This analysis shows that the conceptual difficulties associated with time do not arise only when gravity is quantised. Tensions between causal structure, clocks, observables, and measurement are already present in the theories from which quantum gravity is constructed. We then survey responses to the problem of time across the principal approaches to quantum gravity. These include canonical and Wheeler-DeWitt quantisation, path-integral and histories formulations, perturbative and background-dependent approaches, causal sets, and twistor theory. The programmes are compared according to whether they retain an external time, render time problematic through quantisation, or incorporate causal or temporal structure into their foundations. Particular emphasis is placed on questions arising from quantum foundations and relativistic quantum information. We conclude by examining linearised gravity and weak-gravity quantum systems. This regime shows that the problem of time is not confined to Planck-scale physics, but arises already in attempts to provide a predictive and operationally meaningful quantum description of spacetime near flat geometry.