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PFUSRC-010-B: Measurement as Anchoring -- Wavefunction Collapse as \boldsymbol{\beta_{1}} Active Risk Avoidance

Zhenmin Wang

Published Jun 3, 2026• 0 citations
Publisher

Abstract

The quantum measurement problem is a foundational issue left unresolved by the Copenhagen interpretation for nearly a century: existing theories merely postulate that observation induces wavefunction collapse as a basic axiom, without providing a corresponding microscopic physical mechanism. Based on the PFUSRC theoretical framework, this paper proposes a completely new physical picture: quantum measurement is not a passive reading of the quantum system state by experimental apparatus, but a mandatory topological anchoring of the measured subsystem \Xi by the measuring wavefunction \Psi. As the anchoring disturbance difference \Delta A increases, the underlying ontological field \beta_{1} triggers an endogenous active risk avoidance (i.e., an intrinsic dynamic response to maintain topological stability), causing the uncertainty constraint to evolve exponentially: \Delta x \cdot \Delta p \geq \frac{\hbar}{2} e^{\kappa \Delta A},\ \kappa=\frac{12}{11} Wavefunction collapse is no longer a random quantum transition without cause, but an objective physical process of phase adaptive reconstruction after \beta_{1}, constrained by anchoring topology, is forced to select a single eigen-anchoring point. Three core conclusions of this paper: 1. The Heisenberg uncertainty relation \Delta x \cdot \Delta p ≥\hbar / 2 is a degenerate special case of this modified formula in the weak measurement limit \Delta A \to 0; 2. The PFUSRC modified uncertainty relation is rooted in a complete dynamical chain of \beta_{1} “perceive disturbance → actively avoid disturbance → uncertainty increases exponentially,” possessing a clear physical mechanism, distinct from the static Copenhagen postulate; 3. The statistical meaning of the Born probability rule is equivalent to the topological weight distribution of discrete phases during \beta_{1}’s risk avoidance evolution. Three quantifiable experimental falsification criteria are proposed at the end of this paper, transforming the quantum measurement problem, long confined to philosophical speculation, into a quantitative physical issue that can be tested experimentally.

DOI
10.5281/zenodo.20524503

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The quantum measurement problem is a foundational issue left unresolved by the Copenhagen interpretation for nearly a century: existing theories merely postulate that observation induces wavefunction collapse as a basic axiom, without providing a corresponding microscopic physical mechanism. Based on the PFUSRC theoretical framework, this paper proposes a completely new physical picture: quantum measurement is not a passive reading of the quantum system state by experimental apparatus, but a mandatory topological anchoring of the measured subsystem \Xi by the measuring wavefunction \Psi. As the anchoring disturbance difference \Delta A increases, the underlying ontological field \beta_{1} triggers an endogenous active risk avoidance (i.e., an intrinsic dynamic response to maintain topological stability), causing the uncertainty constraint to evolve exponentially: \Delta x \cdot \Delta p \geq \frac{\hbar}{2} e^{\kappa \Delta A},\ \kappa=\frac{12}{11} Wavefunction collapse is no longer a random quantum transition without cause, but an objective physical process of phase adaptive reconstruction after \beta_{1}, constrained by anchoring topology, is forced to select a single eigen-anchoring point. Three core conclusions of this paper: 1. The Heisenberg uncertainty relation \Delta x \cdot \Delta p ≥\hbar / 2 is a degenerate special case of this modified formula in the weak measurement limit \Delta A \to 0; 2. The PFUSRC modified uncertainty relation is rooted in a complete dynamical chain of \beta_{1} “perceive disturbance → actively avoid disturbance → uncertainty increases exponentially,” possessing a clear physical mechanism, distinct from the static Copenhagen postulate; 3. The statistical meaning of the Born probability rule is equivalent to the topological weight distribution of discrete phases during \beta_{1}’s risk avoidance evolution. Three quantifiable experimental falsification criteria are proposed at the end of this paper, transforming the quantum measurement problem, long confined to philosophical speculation, into a quantitative physical issue that can be tested experimentally.
PFUSRC-010-A and PFUSRC-010-B have demonstrated respectively from experimental data and fundamental theory that quantum measurement uncertainty originates from violent topological anchoring of target quantum subsystem by measuring apparatus. Large anchoring disturbance difference \Delta A drives the ontological field \beta_{1} to perform intrinsic active risk avoidance for topological stability, making quantum information concealed within the low-probability topological domain P_\mathrm{low}. This paper proposes the conception of Flow Platform, a novel measurement interface designed to suppress \beta_{1} risk avoidance and realize lossless non-destructive quantum readout. The Flow Platform is defined by four core features: global full-system sensing, asymptotically vanishing measurement disturbance (\Delta A \to 0), weak resonant coupling and measurement construction constrained by topological invariants. Derived from the intrinsic framework of PFUSRC, this work provides practical engineering control schemes for \Delta A, the exponential relation T_\mathrm{coh} \propto e^{-\kappa\Delta A} between quantum coherence and disturbance as well as the 12/11 parity statistical verification criterion. All theoretical deductions are cross-referenced against cutting-edge experiments including quantum capacitance probing, superconducting junction readout and Majorana topological qubit protection. Three feasible falsifiable experimental proposals are put forward to validate the whole theoretical framework.
Abstract: The quantum measurement problem has been the deepest conceptual difficulty since the birth of quantum mechanics. Standard quantum mechanics accepts wavefunction collapse as an independent postulate but never provides a physical explanation. The decoherence approach attributes collapse to the interaction between the system and its environment, but faces two fundamental limitations: the “infinite regress” problem and the “insufficiency of decoherence” problem. Within the framework of the Self-Construction Theory (SCT), this paper provides a complete resolution of the measurement problem. The core thesis is that quantum measurement is not a fundamental process independent of the laws of physical evolution, but rather a local manifestation of constructive renormalization—the scale evolution of the spacetime complex field KKK from microscopic degrees of freedom to macroscopic effective descriptions. The origins of wavefunction collapse, decoherence, and the Born rule receive a unified first‑principles interpretation in this framework. SCT’s spontaneous decoherence mechanism is the key to the resolution. Constructive renormalization inherently involves information loss—the integrated‑out microscopic degrees of freedom no longer exist in the macroscopic effective description. During a measurement, the measuring apparatus possesses a huge number (∼1023\sim10^{23}∼1023) of microscopic degrees of freedom. When the apparatus interacts with the measured system, constructive renormalization triggers information compression of these degrees of freedom—the apparatus can no longer distinguish which branch of the superposition it is in, and quantum coherence is thus spontaneously lost. No “external environment” is needed—the constructive renormalization dynamics of spacetime itself is the ultimate source of decoherence, thereby completely solving the “infinite regress” problem. Among the probability distribution given by the Born rule, the weights of non‑maximal probability branches are further suppressed by information compression under the huge number of microscopic degrees of freedom, so that macroscopic observers can perceive only a definite outcome in the effective description. The information loss caused by constructive renormalization is ontological—it does not rely on any approximation or truncation, thus fundamentally solving the “insufficiency of decoherence” problem. The Born rule—that measurement outcomes occur with probabilities given by the squared amplitudes—is directly derived from the constructive integral structure in SCT. In the constructive renormalization limit, interference terms between different configurations are naturally suppressed by off‑diagonal phase randomization, and the system automatically switches to a classical probabilistic description. In the diagonal density matrix representation, the squared amplitude is the only natural weight that is simultaneously real and non‑negative. Hence the Born rule is not an additional postulate of quantum mechanics but a necessary and unique manifestation of the relative frequencies of the constructive integral in the constructive renormalization limit. This derivation is rigorous within the mathematical framework of constructive renormalization—it does not rely on any approximations or truncations. SCT’s quantum measurement theory is deeply unified with the black hole information paradox. The “collapse” in quantum measurement and the “information loss” in black hole evaporation are different manifestations of the same core mechanism—the redistribution of information due to constructive renormalization—in two extreme physical situations. In quantum measurement, information is redistributed into the degrees of freedom of the macroscopic apparatus; in black hole evaporation, information is redistributed into the time‑point configurations on the horizon. This unification is the strongest proof of the universality of constructive renormalization as an information‑processing mechanism. Keywords: quantum measurement; spontaneous decoherence; constructive renormalization; Born rule; wavefunction collapse; information redistribution; Self-Construction Theory
The quantum measurement problem — the question of what physically occurs when a quantum system yields a definite outcome upon measurement — has remained unresolved since von Neumann's formalization of quantum mechanics in 1932. Existing interpretational frameworks each address aspects of this problem while leaving a specific mechanistic gap unfilled. The Copenhagen interpretation declares collapse without explaining it. The many-worlds interpretation removes collapse but cannot specify the preferred measurement basis. Pilot wave theory identifies a guiding field without identifying what it is. Relational quantum mechanics correctly describes the relational structure of measurement outcomes without specifying the physical process by which relational facts are established. Decoherence theory specifies which outcomes are available through environmental selection without explaining which outcome actually occurs. In each case the effect of measurement is described with precision while the mechanism remains absent. This paper proposes that the Dimensional Evolution geometric framework provides that mechanism. Wavefunction collapse is resonant selection — the stabilization of a specific harmonic configuration when an observer's resonance structure synchronizes with a quantum system's scan traversal through a completed entropic pathway. This is not a metaphysical claim. It is a physically grounded geometric process from which the measurement postulates of standard quantum mechanics emerge as derived consequences rather than foundational axioms. The Born rule reflects the fractal exponential geometry of the coherence manifold. The preferred basis is geometrically specified by observer-system resonance compatibility. The measurement cut dissolves into a continuous spectrum of resonance stability requiring no quantum-classical boundary. The definite outcome problem is resolved by resonant synchronization completing — a deterministic geometric event whose apparent randomness reflects incomplete knowledge of resonance conditions rather than fundamental indeterminacy. The paper maps DE's resonant selection mechanism against each major interpretation, identifying precisely where DE does explanatory work each interpretation cannot. Three testable experimental predictions are proposed — geometry-dependent collapse timing, resonance-bandwidth-dependent outcome distributions, and a geometric memory effect in measurement apparatus — each grounded in physical principles confirmed at other scales and each distinguishable from standard quantum mechanical and decoherence predictions. The implications of this account for the Heisenberg uncertainty relation are identified as a priority for subsequent formal development.
PFUSRC-008 Probability Ontology defines probability as an intrinsic constraint property of topological structures, yet it fails to resolve how probability evolves when topological structures flow and deform. As a dynamic upgrade to PFUSRC-008, this paper introduces the flow-variable field, \Psi-\Xi anchoring and information transmission mechanism to establish the topological rheology framework of probability. The core argument of this paper: probability is not a static inherent attribute of events, but the dynamic projection generated by information anchoring inside the flow-variable field. Once prediction, diagnosis or intentional adjustment tilts the \Psi-\Xi anchoring vector, information transmission paths shift accordingly, redistributing the flow-variable field and reconstructing the whole probability space. The complete causal chain is listed as information input → anchoring tilt → information path deflection → flow-variable field redistribution → probability space reorganization → outcome variation; long-term accumulated local adjustment can trigger global structural re-anchoring. The transformation of probability follows emergence rather than linear superposition. Linear calculation only provides approximate values, while structural mutations bring emergent reorganization of probability space that can only be described by interval bounds. This conclusion is fully consistent with the modified uncertainty principle in the PFUSRC system. This paper further proposes three testable predictions and standardized falsification conditions, unifying microscopic quantum measurement perturbation and macroscopic prediction adjustment under the same topological rheology paradigm.
This paper starts from the three century-old core puzzles of quantum mechanics, namely double-slit interference, wave function collapse, and the uncertainty principle. Adopting the PFUSRC transcendental topological framework, this study unveils their essential nature: these quantum phenomena do not prove that the universe is fundamentally random, but merely represent inevitable manifestations of the ontology-projection hierarchical structure within low-dimensional observational systems. Measurement constitutes a first-center anchoring request toward the ontological structure. Wave function collapse is defined as deterministic topological ownership locking of projection paths. Quantum uncertainty originates from the active risk-avoidance mechanism of the β₁ topological field under excessive observational perturbation. Furthermore, this paper establishes a rigorous structural definition of reality manifestation. It topological interprets the inherent logical principles behind the propositions that inherent destiny is fixed within an innate baseline boundary while acquired fortune trajectory allows continuous optimization, and that human transcendence is essentially topological alignment with universal ontological order. As a phased culmination of the PFUSRC theoretical system, this research constructs a complete logical chain that unifies quantum mechanical interpretation, individual existential path optimization, and macroscopic civilizational structural evolution.
The Feynman path integral is a foundational mathematical tool in quantum mechanics. Its popular interpretation often portrays microscopic processes as “particles traversing all possible paths simultaneously, with paths canceling one another until only one remains.” This paper argues that the path integral itself carries no ontological commitment; the issue lies in the popular interpretation that mistakes mathematical equivalence for physical reality, implicitly assuming an ontology of stochastic competition and passive cancellation. Drawing on the PFUSRC biconic ontology, this paper demonstrates that no continuous paths exist at the ontological layer; only discrete \Psi-\Xi anchoring events are present. The actual microscopic process is an ordered anchoring sequence of Estimation → Avoidance → Selection, wherein the \Xi-field performs proactive topological risk avoidance rather than passive behavior. A fourfold logical falsification of the “stochastic competition / passive cancellation” hypothesis is presented, addressing energy dissipation, entropy increase, irreconcilable phase and spin topologies, and time delay. The 720^\circ spin recovery property serves as a key empirical anchor, revealing the topologically entangled nature of microscopic particles. From a dimensional-geometric perspective, this paper further demonstrates that fundamental physical equations — the Lagrangian, the Feynman path integral, the Dirac equation, and the Einstein field equations — are all three-dimensional cross-sectional approximations of the four-dimensional biconic ontological topology, inherently discarding the degrees of freedom of the Gap Field, the \Psi/\Xi dual-field screening mechanism, and four-dimensional topological temporal ordering. Accordingly, this paper proposes the Global Path Formula as a unified ontological meta-framework. This framework is not a single computational equation; its core function is to delineate the domains of applicability, the missing degrees of freedom, and the hierarchical positioning of all classical, quantum, and gravitational physical equations. It also subsumes the scattered phenomenological corrections in contemporary frontier physics under a unified global correction logic grounded in four-dimensional ontological topology. This paper accomplishes an ontological reinterpretation of the quantum path problem and provides a unified foundational classificatory paradigm for all fundamental physical equations.