Compressed self-avoiding walks in two and three dimensions.

We consider the phase transition induced by compressing a self-avoiding walk in a slab where the walk is attached to both walls of the slab in two and three dimensions, and the resulting phase once the polymer is compressed. The process of moving between a stretched situation where the walls pull apart to a compressed scenario is a phase transition with some similarities to that induced by pulling and pushing the end of the polymer. However, there are key differences in that the compressed state is expected to behave like a lower dimensional system, which is not the case when the force pushes only on the end point of the polymer. We use scaling arguments to predict the exponents both associated with the phase transition and in the compressed state and find good agreement with Monte Carlo simulations.

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Publication Details

Journal
PubMed
Published
2025-11-01
DOI
https://doi.org/10.1103/wtrv-4g4h
Primary Topic
Advanced Physical and Chemical Molecular Interactions
Type
article
Field-Weighted Citation Impact
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article

Compressed self-avoiding walks in two and three dimensions.

A L Owczarek, Nicholas R. Beaton, C. J. Bradly
PubMed
Advanced Physical and Chemical Molecular Interactions
article

Compressed self-avoiding walks in two and three dimensions.

A L Owczarek, Nicholas R. Beaton, C. J. Bradly
article en

Abstract

We consider the phase transition induced by compressing a self-avoiding walk in a slab where the walk is attached to both walls of the slab in two and three dimensions, and the resulting phase once the polymer is compressed. The process of moving between a stretched situation where the walls pull apart to a compressed scenario is a phase transition with some similarities to that induced by pulling and pushing the end of the polymer. However, there are key differences in that the compressed state is expected to behave like a lower dimensional system, which is not the case when the force pushes only on the end point of the polymer. We use scaling arguments to predict the exponents both associated with the phase transition and in the compressed state and find good agreement with Monte Carlo simulations.

PubMedVol. 112(5-1)
The University of Melbourne (AU), Victorian Curriculum and Assessment Authority (AU), Melbourne Health (AU)
Openalex Percentile: Top 69%
Advanced Physical and Chemical Molecular Interactions
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