Duality, Reconstruction, and Structural Toolkit Theorems in Algebraic Phase Theory
Joe Gildea

TL;DR
This paper advances Algebraic Phase Theory by establishing reconstruction frameworks based on representation theory, highlighting the role of boundary structures and intrinsic phenomena in non-rigid settings.
Contribution
It introduces a finite-depth reconstruction approach controlled by boundary stratification and representation data, extending the structural understanding of algebraic phases.
Findings
Reconstruction is controlled up to boundary equivalence by filtered representation data.
Non-rigid behavior is associated with intrinsic structural boundaries.
Boundary phenomena govern ambiguity in global reconstruction.
Abstract
We study finite-depth reconstruction frameworks based on representation theory and show that non-rigid reconstruction behaviour is naturally accompanied by intrinsic structural boundaries. Within the finite-depth setting considered in this paper, reconstruction is controlled up to boundary equivalence by the associated filtered representation data together with boundary stratification. We show that algebraic phases satisfying the axioms of Algebraic Phase Theory (APT) are reconstructible up to intrinsic phase equivalence from their filtered representation categories together with their boundary structure. Reconstruction proceeds without boundary collapse on rigidity islands, while globally the remaining ambiguity is governed by intrinsic boundary phenomena. We further study a collection of structural consequences associated with the axioms of APT, including finite generation…
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Taxonomy
TopicsHomotopy and Cohomology in Algebraic Topology · Block Copolymer Self-Assembly · Quasicrystal Structures and Properties
