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Autore principale: Zhang, Jincheng
Natura: Recurso digital
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Pubblicazione: Zenodo 2026
Accesso online:https://doi.org/10.5281/zenodo.20046585
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author Zhang, Jincheng
author_facet Zhang, Jincheng
contents <p><span>This paper proposes a novel formal system: the theory of interactive proof dynamics (IPDT). In this theory, proofs are no longer static objects or discrete sequences, but are defined as continuous dynamical systems evolving within a "semantic constraint space." The validity of a proof is no longer determined by single-step derivation rules, but by stability conditions in an "interactive consistency field." We introduce a proof state space, a semantic potential function, a verifier-builder coupling operator, and define a new correctness criterion: a proof is a convergent trajectory on a doubly constrained manifold, rather than a checkable string. This framework unifies logical reasoning, verifiable computation, and interactive processes, and provides a novel mathematical foundation for the concept that "proof is a dynamically stable point."</span></p>
format Recurso digital
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institution Zenodo
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publishDate 2026
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spellingShingle Interactive Proof Dynamics Theory: A Continuous-State Framework for Proofs as Stable Dynamical Systems
Zhang, Jincheng
<p><span>This paper proposes a novel formal system: the theory of interactive proof dynamics (IPDT). In this theory, proofs are no longer static objects or discrete sequences, but are defined as continuous dynamical systems evolving within a "semantic constraint space." The validity of a proof is no longer determined by single-step derivation rules, but by stability conditions in an "interactive consistency field." We introduce a proof state space, a semantic potential function, a verifier-builder coupling operator, and define a new correctness criterion: a proof is a convergent trajectory on a doubly constrained manifold, rather than a checkable string. This framework unifies logical reasoning, verifiable computation, and interactive processes, and provides a novel mathematical foundation for the concept that "proof is a dynamically stable point."</span></p>
title Interactive Proof Dynamics Theory: A Continuous-State Framework for Proofs as Stable Dynamical Systems
url https://doi.org/10.5281/zenodo.20046585