PFUSRC-131F Phase Pulling — The Ontological Topological Effect of High-Potential Anchors

This paper proposes a core proposition: the existence of a high-potential anchor itself constitutes topological intervention. Through coupling of the β₁ global field and the 55-closure boundary constraint, such anchors reorganize the phase distribution of all carriers within the same closed topological system. Mainstream academic frameworks attribute individual disparities to random probability or stochastic mutation, which essentially misinterprets topological phase screening as statistical fluctuation. Based on core PFUSRC system theories including the 45° triple coaxial biconical topology, Ψ-Ξ anchoring strength I, 55-closure boundary and β₁ global coupling field, this text constructs a qualitative mechanical framework for phase pulling and verifies its ontological validity via foundational real-world case studies. The research further expands to a four-layer nested topological structure covering civilization, nation, class and individual, and elaborates the bidirectional cross-scale transmission logic of phase pulling. A critical topological law is put forward: despite occupying the lowest tier of nested carrier structures, individuals hold the strongest capacity to break phase constraints. Individuals with balanced Ψ-Ξ anchoring strength act as innovation-leading anchors, capable of penetrating multi-layer phase barriers and reshaping the overall phase layout of upper-tier systems. Forcibly locking individual phase positions creates systemic topological defects, triggering cumulative global stress and eroding the iterative vitality of the entire framework. This paper is authored by an independent researcher without institutional affiliation, with all rigorous mathematical and topological proofs recorded in PFUSRC foundational serial papers PFUSRC-00, PFUSRC-001, PFUSRC-009, PFUSRC-017 and PFUSRC-042.

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Publication Details

Journal
Zenodo (CERN European Organization for Nuclear Research)
Published
2026-08-03
DOI
https://doi.org/10.5281/zenodo.21769729
Primary Topic
Opinion Dynamics and Social Influence
Type
article
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article

PFUSRC-131F Phase Pulling — The Ontological Topological Effect of High-Potential Anchors

Zhenmin Wang
Zenodo (CERN European Organization for Nuclear Research)
Opinion Dynamics and Social Influence
article

PFUSRC-131F Phase Pulling — The Ontological Topological Effect of High-Potential Anchors

Zhenmin Wang
article en

Abstract

This paper proposes a core proposition: the existence of a high-potential anchor itself constitutes topological intervention. Through coupling of the β₁ global field and the 55-closure boundary constraint, such anchors reorganize the phase distribution of all carriers within the same closed topological system. Mainstream academic frameworks attribute individual disparities to random probability or stochastic mutation, which essentially misinterprets topological phase screening as statistical fluctuation. Based on core PFUSRC system theories including the 45° triple coaxial biconical topology, Ψ-Ξ anchoring strength I, 55-closure boundary and β₁ global coupling field, this text constructs a qualitative mechanical framework for phase pulling and verifies its ontological validity via foundational real-world case studies. The research further expands to a four-layer nested topological structure covering civilization, nation, class and individual, and elaborates the bidirectional cross-scale transmission logic of phase pulling. A critical topological law is put forward: despite occupying the lowest tier of nested carrier structures, individuals hold the strongest capacity to break phase constraints. Individuals with balanced Ψ-Ξ anchoring strength act as innovation-leading anchors, capable of penetrating multi-layer phase barriers and reshaping the overall phase layout of upper-tier systems. Forcibly locking individual phase positions creates systemic topological defects, triggering cumulative global stress and eroding the iterative vitality of the entire framework. This paper is authored by an independent researcher without institutional affiliation, with all rigorous mathematical and topological proofs recorded in PFUSRC foundational serial papers PFUSRC-00, PFUSRC-001, PFUSRC-009, PFUSRC-017 and PFUSRC-042.

Zenodo (CERN European Organization for Nuclear Research)
Industry, innovation and infrastructure
Openalex Percentile: Top 9%
Opinion Dynamics and Social Influence
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PFUSRC-131F Phase Pulling — The Ontological Topological Effect of High-Potential Anchors — Zhenmin Wang · Zenodo (CERN European Organization for Nuclear Research) (2026) | TGRS Research Map | TGRS