Mechanistic mixture models of mechanics of morphogenesis with murine measurement

小鼠测量形态发生力学的机械混合模型

基本信息

批准号：
8045560
负责人：
SHARON R LUBKIN
金额：
$ 33万
依托单位：
NORTH CAROLINA STATE UNIVERSITY RALEIGH
依托单位国家：
美国
项目类别：
财政年份：
2010
资助国家：
美国
起止时间：
2010-08-01 至 2014-06-30
项目状态：
已结题

来源：
https://reporter.nih.gov/project-details/8045560
关键词：
Adenoviruses Adhesions Adhesiveness Adhesives Affect African American Algorithms Ants Area Behavior Binding Biological Biological Models Biological Sciences Biology Biomechanics Blood Blood Circulation Blood Vessels Blood capillaries Boxing Cadherins Calibration Cell Count Cell model Cell-Cell Adhesion Cells Characteristics Chemicals Chemotaxis Cleaved cell Collaborations Collection Columnar Epithelium Communication Communication Barriers Complex Computer software Coupling Data Development Developmental Biology Diffuse Diffusion Dimensions Discipline Duct (organ) structure E-Cadherin Education Educational workshop Elasticity Elements Embryo Engineering Environment Epithelial Epithelium Epithelium Part Equation Equilibrium Erythrocytes Extracellular Matrix FGF10 gene Face Fibroblast Growth Factor Fibronectins Figs - dietary Foundations Future Gel Generations Genetic Recombination Goals Growth Growth Factor Hour Human Resources Hybrids Hypertrophy Image Immunoglobulin G In Vitro Individual Integrins Kidney Label Language Laws Learning Left Life Link Liquid substance Lobe Location Lung Malignant Neoplasms Mammary gland Measurable Measurement Measures Mechanics Mesenchymal Mesenchyme Methods Microscopy Milk Mitosis Modeling Modification Molecular Morals Morphogenesis Morphology Motion Mus Neighborhoods Obstruction Organ Organ Culture Techniques Organism Pattern Peptides Phase Play Positioning Attribute Pregnancy Preparation Process Property Publications Radial Recording of previous events Recruitment Activity Relative (related person)Research Research Institute Resistance Rest Role Salivary Scheme Science Scientist Sepharose Shapes Simulate Solutions Son Sorting - Cell Movement Staging Staining method Stains Stereotyping Stress Structure Structure of parenchyma of lung Students Supervision Surface Tension System Testing Thick Time Tissue Engineering Tissue Model Tissues Training Uncertainty Variant Vascular Endothelial Growth Factors Viscosity Work Wound Healing angiogenesis base biological systems capillary cell behavior cell motility college crosslink design expectation experience feeding fibroblast growth factor 10 hydrology image processing inhibitor/antagonist insight kinase inhibitor lung development mammary epithelium mathematical model matrigel migration models and simulation morphometry next generation particle physical process pressure programs public health relevance reconstruction research study response simulation soft tissue spatiotemporal symposium theories viscoelasticity ward

项目摘要

DESCRIPTION (provided by applicant): Objectives: The living world is embedded in the physical world. Small organisms live in a world of diffusion. The rest of us require a system of ducts for transport of all the materials we need to live. Systems of branched ducts are found in lung, kidney, mammary gland, and many other organs. This project's primary objective is to understand the mechanisms of tissue dynamics that create branched systems. It also aims to clarify the best ways to work with continuum mechanical models of morphogenesis to realistically describe mechanics and transport in developing tissues. Additionally, the project will develop new numerical methods for mixture models with interfaces. We will then test these models in a real time living branching system, the early embryonic lung. Aim 1: Develop accurate, stable, efficient methods for solving mixture problems with sharp interfaces. Aim 2: Develop a suite of models of the mechanical aspects of branching epithelia. Aim 3: Determine the morphogenetic effect of the mechanics internal to a branching epithelium. Aim 4: Determine the morphogenetic effect of the mechanics external to a branching epithelium. Part of this project will be a determination of the appropriate constitutive laws, as well as quantification of the physical parameters, of the tissues involved in branching epithelia. This can only be effectively done by theory-guided experiments in conjunction with experiment-guided theory. The synergy of mechanistic mathematical modeling, sophisticated simulation, and experiment designed and analyzed in a quantitative mechanical framework will - help support or refute hypothesized mechanisms - clarify the relative roles of various physical phenomena in creating branched systems of ducts - help drive a part of biomedicine towards the future as a more exactly quantitative discipline.