Constrained Mixture Models of Soft Tissue Growth and Remodeling – Twenty Years After

Soft biological tissues compromise diverse cell types and extracellular matrix constituents, each of which can possess individual natural configurations, material properties, and rates of turnover. For this reason, mixture-based models of growth (changes in mass) and remodeling (change in microstruc...

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Published inJournal of elasticity Vol. 145; no. 1-2; pp. 49 - 75
Main Author Humphrey, J. D.
Format Journal Article
LanguageEnglish
Published Dordrecht Springer Netherlands 01.08.2021
Springer Nature B.V
Subjects
Automotive Engineering
Blood vessels
Classical Mechanics
Homeostasis
Material properties
Physics
Physics and Astronomy
Soft tissues
92C10
Tissue engineering
Thrombus
Mechanobiology
Homeostasis
Vein
Artery
mechanobiology
homeostasis
tissue engineering
vein
artery
thrombus
Online AccessGet full text
ISSN0374-3535
1573-2681
DOI10.1007/s10659-020-09809-1

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Abstract Soft biological tissues compromise diverse cell types and extracellular matrix constituents, each of which can possess individual natural configurations, material properties, and rates of turnover. For this reason, mixture-based models of growth (changes in mass) and remodeling (change in microstructure) are well-suited for studying tissue adaptations, disease progression, and responses to injury or clinical intervention. Such approaches also can be used to design improved tissue engineered constructs to repair, replace, or regenerate tissues. Focusing on blood vessels as archetypes of soft tissues, this paper reviews a constrained mixture theory introduced twenty years ago and explores its usage since by contrasting simulations of diverse vascular conditions. The discussion is framed within the concept of mechanical homeostasis, with consideration of solid-fluid interactions, inflammation, and cell signaling highlighting both past accomplishments and future opportunities as we seek to understand better the evolving composition, geometry, and material behaviors of soft tissues under complex conditions.
AbstractList Soft biological tissues compromise diverse cell types and extracellular matrix constituents, each of which can possess individual natural configurations, material properties, and rates of turnover. For this reason, mixture-based models of growth (changes in mass) and remodeling (change in microstructure) are well-suited for studying tissue adaptations, disease progression, and responses to injury or clinical intervention. Such approaches also can be used to design improved tissue engineered constructs to repair, replace, or regenerate tissues. Focusing on blood vessels as archetypes of soft tissues, this paper reviews a constrained mixture theory introduced twenty years ago and explores its usage since by contrasting simulations of diverse vascular conditions. The discussion is framed within the concept of mechanical homeostasis, with consideration of solid-fluid interactions, inflammation, and cell signaling highlighting both past accomplishments and future opportunities as we seek to understand better the evolving composition, geometry, and material behaviors of soft tissues under complex conditions.Soft biological tissues compromise diverse cell types and extracellular matrix constituents, each of which can possess individual natural configurations, material properties, and rates of turnover. For this reason, mixture-based models of growth (changes in mass) and remodeling (change in microstructure) are well-suited for studying tissue adaptations, disease progression, and responses to injury or clinical intervention. Such approaches also can be used to design improved tissue engineered constructs to repair, replace, or regenerate tissues. Focusing on blood vessels as archetypes of soft tissues, this paper reviews a constrained mixture theory introduced twenty years ago and explores its usage since by contrasting simulations of diverse vascular conditions. The discussion is framed within the concept of mechanical homeostasis, with consideration of solid-fluid interactions, inflammation, and cell signaling highlighting both past accomplishments and future opportunities as we seek to understand better the evolving composition, geometry, and material behaviors of soft tissues under complex conditions.
Soft biological tissues compromise diverse cell types and extracellular matrix constituents, each of which can possess individual natural configurations, material properties, and rates of turnover. For this reason, mixture-based models of growth (changes in mass) and remodeling (change in microstructure) are well-suited for studying tissue adaptations, disease progression, and responses to injury or clinical intervention. Such approaches also can be used to design improved tissue engineered constructs to repair, replace, or regenerate tissues. Focusing on blood vessels as archetypes of soft tissues, this paper reviews a constrained mixture theory introduced twenty years ago and explores its usage since by contrasting simulations of diverse vascular conditions. The discussion is framed within the concept of mechanical homeostasis, with consideration of solid-fluid interactions, inflammation, and cell signaling highlighting both past accomplishments and future opportunities as we seek to understand better the evolving composition, geometry, and material behaviors of soft tissues under complex conditions.
Author Humphrey, J. D.
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  email: jay.humphrey@yale.edu
  organization: Department of Biomedical Engineering, Yale University
BackLink https://www.ncbi.nlm.nih.gov/pubmed/34483462$$D View this record in MEDLINE/PubMed
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Issue 1-2
Keywords 92C10
Tissue engineering
Thrombus
Mechanobiology
Homeostasis
Vein
Artery
mechanobiology
homeostasis
tissue engineering
vein
artery
thrombus
Language English
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Publisher Springer Netherlands
Springer Nature B.V
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SubjectTerms Automotive Engineering
Blood vessels
Classical Mechanics
Homeostasis
Material properties
Physics
Physics and Astronomy
Soft tissues
Title Constrained Mixture Models of Soft Tissue Growth and Remodeling – Twenty Years After
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