Five-Phase Bulk-Dressed Extension and Adjacency-Induced Directional Asymmetry

Fuente: Zenodo
Enregistré dans:
Détails bibliographiques
Auteur principal: Holdway, Craig Edwin
Format: Recurso digital
Langue:anglais
Publié: Zenodo 2026
Sujets:
Accès en ligne:
Tags: Ajouter un tag
Pas de tags, Soyez le premier à ajouter un tag!
_version_ 1866901314275901440
author Holdway, Craig Edwin
author_facet Holdway, Craig Edwin
contents <p>We show that the mediated three-sector system underlying Theorems 10 and 11 arises as the effective active core of a five-phase bulk-dressed architecture. Integrating out two outer bulk phases via Schur-complement reduction produces dressed detunings that sharpen the detuning-controlled transport asymmetry mechanism without altering its structure.</p> <p>We then introduce an adjacency-structured bulk and derive the leading correction to the dressed detuning difference under asymmetric adjacency coupling. In the symmetric-bulk regime, adjacency enters only at second order, yielding the explicit shift</p> <p><strong>ΔR−ΔL=δ+(EM−B2)(EM−B1)2u2(a′2−a2)+O(u2a4,u4)</strong>,</p> <p>which provides a compact algebraic relation linking bulk-core coupling, adjacency structure, and left-right asymmetry.</p> <p>A conditional proposition shows that, under a monotonicity assumption, adjacency asymmetry alone can reverse the directional ordering of local recovery failure in the reduced model.</p> <p>We further establish an operator realization of the leading correction on the dressed core as a diagonal side-asymmetry operator PR−PL. While no natural bare-basis global asymmetry operator projects to this form, we construct an explicit lifted realization via a core-bath mixing unitary, and exhibit an exact dynamical implementation within a parameter-tuned regime of the same five-phase Hamiltonian architecture. The question of whether such a lift is structurally forced by the underlying Q5 geometry remains open.</p> <h1> </h1>
format Recurso digital
id zenodo_https___doi_org_10_5281_zenodo_19393422
institution Zenodo
language eng
publishDate 2026
publisher Zenodo
record_format zenodo
spellingShingle Five-Phase Bulk-Dressed Extension and Adjacency-Induced Directional Asymmetry
Holdway, Craig Edwin
quantum transport
effective Hamiltonian
Schur complement reduction
detuning asymmetry
perturbation theory
operator theory
Q5 hypercube
Q5 hypercube
Gray code structure
Möbius Hamiltonian
graded operator systems
bulk-dressed systems
adjacency-induced correction
directional asymmetry
multi-phase reduction
core-bath coupling
Rabi dynamics
operator lifting
non-uniform environments
quantum information
quantum dynamics
emergent behavior
networked systems
<p>We show that the mediated three-sector system underlying Theorems 10 and 11 arises as the effective active core of a five-phase bulk-dressed architecture. Integrating out two outer bulk phases via Schur-complement reduction produces dressed detunings that sharpen the detuning-controlled transport asymmetry mechanism without altering its structure.</p> <p>We then introduce an adjacency-structured bulk and derive the leading correction to the dressed detuning difference under asymmetric adjacency coupling. In the symmetric-bulk regime, adjacency enters only at second order, yielding the explicit shift</p> <p><strong>ΔR−ΔL=δ+(EM−B2)(EM−B1)2u2(a′2−a2)+O(u2a4,u4)</strong>,</p> <p>which provides a compact algebraic relation linking bulk-core coupling, adjacency structure, and left-right asymmetry.</p> <p>A conditional proposition shows that, under a monotonicity assumption, adjacency asymmetry alone can reverse the directional ordering of local recovery failure in the reduced model.</p> <p>We further establish an operator realization of the leading correction on the dressed core as a diagonal side-asymmetry operator PR−PL. While no natural bare-basis global asymmetry operator projects to this form, we construct an explicit lifted realization via a core-bath mixing unitary, and exhibit an exact dynamical implementation within a parameter-tuned regime of the same five-phase Hamiltonian architecture. The question of whether such a lift is structurally forced by the underlying Q5 geometry remains open.</p> <h1> </h1>
title Five-Phase Bulk-Dressed Extension and Adjacency-Induced Directional Asymmetry
topic quantum transport
effective Hamiltonian
Schur complement reduction
detuning asymmetry
perturbation theory
operator theory
Q5 hypercube
Q5 hypercube
Gray code structure
Möbius Hamiltonian
graded operator systems
bulk-dressed systems
adjacency-induced correction
directional asymmetry
multi-phase reduction
core-bath coupling
Rabi dynamics
operator lifting
non-uniform environments
quantum information
quantum dynamics
emergent behavior
networked systems
url https://doi.org/10.5281/zenodo.19393422