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April 12, 20260 citationsOpen Access

Extended Topological Quantum Field Theory (Part II): Admissible Morphisms, Spectral Embedding, and The Master Theorem of Stability

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APAnna Ivanova Paseva

Key Points

  • The aim is to define admissible morphisms that preserve topological identity and prove system stability.
  • Defined admissible morphisms and their properties within the framework of DFT-TQFT.
  • Introduced spectral graph embedding to ensure robustness in topological structures.
  • Developed the Synthesis Master Theorem for stability across infinite executions.
  • Proven that systemic transformations maintain topological identity under defined constraints.
  • Established Ramanujan eigenvalue bounds guard against fragmentation in structures.
  • Demonstrated unconditional stability of systems conforming to these rules across infinite scaling.

Abstract

In the first paper of this series, we established the formal mathematical foundations of Extended Topological Quantum Field Theory (DFT-TQFT), introducing the categorical operators required to map infinite computational networks to invariant identity classes. This second paper provides the rigorous mathematical boundaries governing how these systems are permitted to evolve. We define the strict class of "Admissible Morphisms," proving that systemic transformations maintain topological identity, finite aggregation, and well-founded recursion if and only if they satisfy predefined mathematical constraints. Furthermore, we introduce Spectral Graph Embedding to ensure topological robustness via Ramanujan eigenvalue bounds, guarding against structural fragmentation. This paper culminates in the Synthesis Master Theorem, providing the definitive proof that systems adhering to these constraints remain unconditionally stable across infinite execution scaling.

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Cite This Study

Anna Ivanova Paseva (2026) studied this question.

synapsesocial.com/papers/69db38274fe01fead37c6480https://doi.org/10.5281/zenodo.19502105
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