Trapping statistics in growing self-interacting self-avoiding walks: Square versus honeycomb lattices

The growing self-avoiding walk has been extensively studied, particularly in relation to whether it shares universality classes with equally weighted self-avoiding walks. This study expands the understanding of growing self-interacting self-avoiding walks and presents perspective on how lattice geometry and interaction strength interplay. We compare these walks on square and honeycomb lattices, and enhance the analysis of their decision points to deepen insights into the trapping effect in these models. The main numerical results uncover a minimum in the mean trapping length as the interaction strength varies for the honeycomb lattice, similar to what is known for the square lattice, and saturation effects in mean trapping lengths, as well as insights originating from the trap size.

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Publication Details

Journal
Physical review. E
Published
2024-12-11
DOI
https://doi.org/10.1103/physreve.110.064120
Citations
1
Primary Topic
Theoretical and Computational Physics
Type
article
Field-Weighted Citation Impact
0.31
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article

Trapping statistics in growing self-interacting self-avoiding walks: Square versus honeycomb lattices

Patrick Senet, Christophe Laforge, Hayk Mikayelyan
1 citations
Physical review. E
Theoretical and Computational Physics
0.31
article

Trapping statistics in growing self-interacting self-avoiding walks: Square versus honeycomb lattices

Patrick Senet, Christophe Laforge, Hayk Mikayelyan
article en
1 citations

Abstract

The growing self-avoiding walk has been extensively studied, particularly in relation to whether it shares universality classes with equally weighted self-avoiding walks. This study expands the understanding of growing self-interacting self-avoiding walks and presents perspective on how lattice geometry and interaction strength interplay. We compare these walks on square and honeycomb lattices, and enhance the analysis of their decision points to deepen insights into the trapping effect in these models. The main numerical results uncover a minimum in the mean trapping length as the interaction strength varies for the honeycomb lattice, similar to what is known for the square lattice, and saturation effects in mean trapping lengths, as well as insights originating from the trap size.

Physical review. EVol. 110(6)
Laboratoire Interdisciplinaire Carnot de Bourgogne (FR)
Openalex Percentile: Top 41%
Theoretical and Computational Physics
0.31
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