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Contextual Spacetime and the Making of Classical Reality - Part 3: How Measurements Cause Time

Allan Porter

Published Jul 21, 2022• 0 citations
Publisher

Abstract

I attempt to outline my theory on how measurements themselves "collapsing" the potential eigenstates of contained informational entities causes the illusion of time from the perspective of information processing systems which make these measurements.
DOI
10.5281/zenodo.6873075

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Although time is one of our most intuitive physical concepts, its understanding at the fundamental level is still an open question in physics. For instance, time in quantum mechanics and general relativity are two distinct and incompatible entities. While relativity deals with events (points in spacetime), with time being observer dependent and dynamical, quantum mechanics describes physical systems by treating time as an independent parameter. To resolve this conflict, in this work, we extend the classical concept of an event to the quantum domain by defining an event as a transfer of information between physical systems. Then, by describing the universe from the perspective of a certain observer, we introduce quantum states of events with space-time-symmetric wave functions that predict the joint probability distribution of a measurement (observation) at $(t,\stackrel{P\vec}{x})$. Under these circumstances, without assuming collapse, we propose that a well-defined instant of time, like any other observable, arises from a single event, thus being an observer-dependent property. In this manner, we obtain a stationary quantum state written as a sum of a sequence of normalized states of events with increasing memories. As a consequence, a counterfactual asymmetry along this sequence of events gives rise to the flow of time as being successive ``snapshots'' from the observer's perspective. In this proposal, which contrasts strikingly to the view in which time is an illusion, it is the many distinguishable states in which the observer stores information that makes the existence of time possible.
At the beginning of our observations, humanity believed that the Earth was the center of the uni-verse and that the sun was spinning around the Earth. Claude Ptolémée (100-168) made a mistake by modelling the movements in the geocentric referential, the model of the sun and planet move-ments was an illusion and all Humanity was wrong. Nicolas Copernic (1473-1543) showed the illusion and simplified the system by moving from the geocentric referential to the heliocentric referential. In the present paper, I would like to discuss about the possibility of making mistakes with quantum theory because we are all in the wrong classical referential. In my interpretation, the decoherence problem and wave function collapse do not exist at all, because we are the illusion, we are living in a quantum illusion, in a mirage. It is impossible to observe the quantum world as it is, in our classical referential, and we see the quantum world with a false vison of quantum reality be-cause we are not yet in the universal quantum referential whose I postulate the existence. As we are quantum illusions when seen from this universal quantum referential, Schrödinger’s cat paradox is a non-sense as life and death are illusions. We must be very humble with quantum theory and we should not put ourselves in the center of the quantum world again particularly with our lives and deaths. We will thus be collectively able to reach the universal quantum referential by changing our vision of life and quantum world. This will be our Big Bang.
Death of Reality completes the Feldt-Higgs Universal Bridge (F-HUB) trilogy begun with Birth of Spacetime and Life of the Cosmos. It formalises the process of de-collapse, describing how mass, gravity, information and entropy dissolve when observation ceases and coherence falls below the threshold for structural persistence. Building on FRAME (Frequency of Real-Time Actualisation via Metastable Entropy) and Informational Entropic Gravity (IEG), the paper introduces the observer-interface parameter εₒ, a dimensionless measure of collapse viability. The work develops coupled decay laws for mass, coherence, curvature and entropy, showing how classical structure reverts to quantum potential. This formulation reframes physical death not as extinction but as informational reversion, a recursive renewal through light and entropy. The study advances the F-HUB framework toward empirical testability, linking informational entropy, coherence and observation as measurable aspects of reality’s self-organising process.