Turing Systems, Entropy, and Kinetic Models for Self-Healing Surfaces

The paper addresses the methods of description of friction-induced self-healing at the interface between two solid bodies. A macroscopic description of self-healing is based on a Turing system for the transfer of matter that leads to self-organization at the interface in the case of an unstable stat...

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Main Author: Eugene Kagan
Format: Article
Language:English
Published: MDPI AG 2010-03-01
Series:Entropy
Subjects:
Online Access:http://www.mdpi.com/1099-4300/12/3/554/
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author Eugene Kagan
author_facet Eugene Kagan
author_sort Eugene Kagan
collection DOAJ
description The paper addresses the methods of description of friction-induced self-healing at the interface between two solid bodies. A macroscopic description of self-healing is based on a Turing system for the transfer of matter that leads to self-organization at the interface in the case of an unstable state. A microscopic description deals with a kinetic model of the process and entropy production during self-organization. The paper provides a brief overview of the Turing system approach and statistical kinetic models. The relation between these methods and the description of the self-healing surfaces is discussed, as well as results of their application. The analytical considerations are illustrated by numerical simulations.
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spelling doaj.art-12ff9dc033eb4e2eb8ecd9ff93af64af2022-12-22T02:57:08ZengMDPI AGEntropy1099-43002010-03-0112355456910.3390/e12030554Turing Systems, Entropy, and Kinetic Models for Self-Healing SurfacesEugene KaganThe paper addresses the methods of description of friction-induced self-healing at the interface between two solid bodies. A macroscopic description of self-healing is based on a Turing system for the transfer of matter that leads to self-organization at the interface in the case of an unstable state. A microscopic description deals with a kinetic model of the process and entropy production during self-organization. The paper provides a brief overview of the Turing system approach and statistical kinetic models. The relation between these methods and the description of the self-healing surfaces is discussed, as well as results of their application. The analytical considerations are illustrated by numerical simulations.http://www.mdpi.com/1099-4300/12/3/554/friction-induced self-healingTuring systemself-organizationentropy productionkinetic model
spellingShingle Eugene Kagan
Turing Systems, Entropy, and Kinetic Models for Self-Healing Surfaces
Entropy
friction-induced self-healing
Turing system
self-organization
entropy production
kinetic model
title Turing Systems, Entropy, and Kinetic Models for Self-Healing Surfaces
title_full Turing Systems, Entropy, and Kinetic Models for Self-Healing Surfaces
title_fullStr Turing Systems, Entropy, and Kinetic Models for Self-Healing Surfaces
title_full_unstemmed Turing Systems, Entropy, and Kinetic Models for Self-Healing Surfaces
title_short Turing Systems, Entropy, and Kinetic Models for Self-Healing Surfaces
title_sort turing systems entropy and kinetic models for self healing surfaces
topic friction-induced self-healing
Turing system
self-organization
entropy production
kinetic model
url http://www.mdpi.com/1099-4300/12/3/554/
work_keys_str_mv AT eugenekagan turingsystemsentropyandkineticmodelsforselfhealingsurfaces