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May 16, 20260 citationsOpen Access

An ℓ¹ Obstruction Framework for Coboundary Defects

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JCJEREMY H. CARROLL

Key Points

  • The research aims to unify and extend the understanding of the ℓ¹ coboundary norm in diagnosing defect fields across various mathematical contexts.
  • Established monotonicity of the ℓ¹ coboundary norm under coarse-graining functors.
  • Extended classification from presheaves to operator-valued presheaves using the Schatten-1 norm.
  • Identified the sheaf Laplacian as the operator influencing defect dynamics.
  • Demonstrated that defect magnitude cannot increase under aggregation and only vanishes through local cancellation.
  • Provided the unique extension of the Schatten-1 norm satisfying additivity and invariance properties.
  • Characterized the kernel of the sheaf Laplacian as the space of globally consistent sections.

Abstract

This paper synthesizes a sequence of results establishing the ℓ¹ coboundary norm as the uniquely forced diagnostic of defect fields across combinatorial, functional, dynamical, and cohomological settings. Building on Papers 000–003, we present a unified obstruction framework and extend it in three directions. First, we prove that the ℓ¹ coboundary norm is monotone under coarse-graining functors, showing that defect magnitude cannot increase under aggregation and vanishes only through local cancellation. Second, we extend the classification from scalar and vector-valued presheaves to operator-valued presheaves, demonstrating that the Schatten-1 (trace) norm is the unique extension satisfying additivity, faithfulness, functoriality, and invariance. Third, we identify the sheaf Laplacian as the natural operator governing defect dynamics and characterize its kernel as the space of globally consistent sections. These results establish the structural stability of the ℓ¹ obstruction framework under aggregation, operator extension, and dynamical flow. We further outline connections to subsequent work, where these constraints are applied to quantum systems, gauge structure, and computational physics. All forward-looking components are explicitly identified as part of an ongoing research program.

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Cite This Study

JEREMY H. CARROLL (2026) studied this question.

synapsesocial.com/papers/6a080a29a487c87a6a40c159https://doi.org/10.5281/zenodo.20186809
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