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01.Interpretation of Quantum Measurement Based on Quantum Interaction and Informational Realism Clarification of Popular Science Misconceptions and a Self-Consistent Formulation

Yonggui Ma

Published Jan 1, 2026• 0 citations
Publisher
DOI
10.13140/rg.2.2.25471.57762

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The double-slit interference experiment has long been widely misinterpreted as "human consciousness directly causing wavefunction collapse". This view confuses physical measurement interaction with subjective conscious experience and deviates from the orthodox interpretation of modern quantum mechanics. Starting from the double-slit experiment, this paper distinguishes the real physical mechanism of wavefunction collapse and points out that the disappearance of interference fringes originates from the physical coupling between measuring devices and microscopic particles as well as environmental decoherence, which has no direct causal relationship with conscious observation. On this basis, this paper proposes a self-consistent unified framework of consciousness and quantum universe: consciousness is not the trigger of collapse, but the ontological source of the entire quantum possibility universe. Through the Yang-Mills mass gap and symmetry breaking mechanism, consciousness condenses the potential quantum field into a material universe with mass, structure and stable dynamics. The biological brain acts as a localized carrier of consciousness, enabling the overall consciousness to observe and experience its own creation from a limited perspective, forming a closed loop of "consciousness creation—self-observation—self-cognition". This paper corrects systematic biases in popular science and public perception, and provides a rigorous and unified path for understanding the real role of consciousness in the quantum universe.
In April of 1956, Hugh Everett III’s draft doctoral thesis, tentatively titled “Wave Mechanics without Probability”, was circulated by his thesis advisor at Princeton University John Wheeler to several leading physicists in the West, including the godfather of quantum mechanics Niels Bohr. Everett aimed at resolving the measurement problem in quantum mechanics. Everett’s solution to the mystery of how, when, where and why the wave function collapses in the measurement process was straightforward: it does not. Due to the opposition of Bohr and other adherents to the Copenhagen Interpretation of quantum mechanics, an objection by Feynman and Wheeler’s growing ambivalence, Everett was required to abridge his thesis, resulting in the publication of “’Relative State’ Formulation of Quantum Mechanics” in July 1957. Everett’s machinery of interpretation, including his information and measure theoretic interpretation of the wave function, his concept of correlation within the superposition, as well as his philosophy of science which provides important context for his theory, are largely absent from the latter “Short Thesis”. Perhaps due to the unusual publication history of his works, many critics of Everett and even many of his supporters have overlooked the significance of the arguments made in the “Long Thesis”, which was published only in 1973. Everett’s fuller exposition there answers often cited criticisms such as Adrian Kent’s “Against Many Worlds Interpretations”. Other popular misconceptions about Everett, that he was driven out of academia or that his thesis was redacted due solely or primarily to the opposition from Copenhagen, do not stand up to careful scrutiny of the historical evidence.
R.V.L. Hartley in 1928 and C.E. Shannon in 1948 have formulated a fundamental assumption that the most natural choice for any future information theory is the logarithmic function. This assumption became common heuristic in contemporary physics, computer science and quantum information theory. Nevertheless, mathematically speaking, we may suppose that Hartley-Shannon Assumption (HSA) needs taking justification seriously. Our note represents the first attempt of re- examination of such sort of popular assumption and we show how an innocent number-theoretical finding by Shannon became unreasonably effective abstraction in contemporary theoretical physics, experimental quantum mechanics and cosmology.