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Collagen : Structure and Mechanics
Structure and Mechanics
By: Peter Fratzl (Editor)
Hardcover | 1 May 2008
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528 Pages
23.39 x 15.6 x 2.87
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Collagen: Structure and Mechanics provides a cohesive introduction to this biological macromolecule and its many applications in biomaterials and tissue engineering.
Graduate students and postdoctoral researchers in the fields of materials, (bio-)engineering, physics, chemistry and biology will gain an understanding of the structure and mechanical behavior of type I collagen and collagen-based tissues in vertebrates, across all length scales from the molecular (nano) to the organ (macro) level. Written in a clear and didactic manner, this volume includes current knowledge on the hierarchical structure, mechanical properties, in addition to a review of deformation and strengthening mechanisms.
Collagen: Structure and Mechanics is an excellent reference for new researchers entering this area and serves as a basis for lecturing in the interdisciplinary field of biological materials science.
Collagen: Structure and Mechanics, an Introduction | p. 1 |
Collagen-Based Tissues | p. 1 |
Basic Mechanical Parameters | p. 4 |
Stress and Strain | p. 4 |
Elastic and Viscoelastic Behavior | p. 5 |
Stiffness, Strength and Toughness | p. 7 |
Mechanical Properties of Collagen-Based Tissues | p. 9 |
Hierarchical Structure of Collagen-Based Tissues | p. 10 |
References | p. 12 |
Collagen Diversity, Synthesis and Assembly | p. 15 |
Introduction | p. 15 |
Fibrillar Collagens | p. 16 |
Non-fibrillar Collagens | p. 19 |
Basement Membraneand Associated Collagens | p. 19 |
Collagen VI | p. 20 |
Collagens VIII and X | p. 21 |
FACITs | p. 21 |
Other Collagensand Collagen-Like Proteins | p. 22 |
Collagen Biosynthesis | p. 22 |
Post-translational Modifications of Polypeptide Chains | p. 23 |
Chain Associationand Triple-Helix Formation | p. 26 |
Intracellular Transportand Secretion | p. 28 |
Procollagen Processing | p. 29 |
Covalent Cross-Linking | p. 30 |
Assembly of Fibrillar Collagens | p. 31 |
Reconstitution of Fibrils In Vitro | p. 31 |
Fibril Formation De Novofrom Procollagen | p. 33 |
Heterotypic Fibril Assembly | p. 34 |
Interactions with Proteoglycans and Other Componentsof theExtracellular Matrix | p. 35 |
Cell Interactions and Long-Range Order | p. 38 |
Assemblyof Collagen-Like Peptides | p. 39 |
Conclusions | p. 41 |
References | p. 41 |
Collagen Fibrillar Structure and Hierarchies | p. 49 |
Introduction and Background | p. 50 |
The Fibril-Forming Collagens | p. 51 |
Molecular Composition of Type I Collagen-Rich Fibrillar Structures | p. 52 |
Molecular Composition of Type II Collagen-Rich Fibrillar Structures | p. 53 |
Collagen Molecular Packing in Fibrils | p. 53 |
Lateral Packing and Molecular Connectivities | p. 58 |
Evidence of Subfibrillar Structures | p. 59 |
Orderand Disorderinthe Collagen Fibril | p. 60 |
Partitionof Structureinthe Collagen Fibril | p. 60 |
Molecular Kinking | p. 62 |
The Fibril Surfaceand Interface Properties | p. 63 |
Factors Involvedin Fibril Growthand Size | p. 67 |
Distributionof Fibril Diameterand Length | p. 68 |
Suprafibrillar Architectures | p. 70 |
Relationships with Mechanical Properties of Collagen-Rich Tissues | p. 72 |
References | p. 74 |
Restraining Cross-Links Responsible for the Mechanical Properties of Collagen Fibers: Natural and Artificial | p. 81 |
Introduction | p. 82 |
Enzyme Cross-Linking(Lysyl Oxidase) | p. 83 |
Immature Tissues | p. 83 |
Mature Tissues | p. 84 |
Changing Cross-Link Profiles of Different Tissues | p. 87 |
Importance of Lysine Hydroxylation | p. 89 |
Cross-Linking and Tissue Adaptation to Mechanical Force | p. 90 |
Determinationofthe Cross-Links | p. 90 |
Non-enzymic Cross-Linking(Glycation) | p. 91 |
Unusual Cross-Linking Mechanisms in Native Collagen | p. 96 |
Stabilization by Chemical Cross-Linking for Bioengineering Tissues | p. 99 |
Mechanisms of Some Common Chemical Cross-Link Reactions | p. 100 |
Location of Enzymic, Glycation and Chemical Cross-Links | p. 103 |
Mechanism of Increased Denaturation Temperature by Cross-Linking | p. 104 |
Future Prospects | p. 105 |
References | p. 105 |
Damage and Fatigue | p. 111 |
Introduction | p. 111 |
Cracks | p. 113 |
The Griffith Crack: Material Resistance, Energy Release Rateand Stress Intensity Factor | p. 113 |
Tough Materials | p. 117 |
The -Curve | p. 118 |
The J-Integral | p. 119 |
Fatigue Cracks | p. 119 |
Creep and Fatigue in Tendon and Bone | p. 121 |
Creep | p. 121 |
Time-to-Ruptureasa Functionof Stress | p. 122 |
Cyclic Loads Compared to a Constant Load: Times-to-Rupture | p. 123 |
Crack Stopping in Bone and Tendon | p. 125 |
Bone | p. 125 |
Tendon | p. 126 |
Biological Aspects: Evolution,Growthand Adaptation | p. 127 |
Tendons | p. 127 |
Bones | p. 128 |
Other Materials | p. 128 |
Generalizations | p. 129 |
References | p. 129 |
Viscoelasticity, Energy Storage and Transmission and Dissipation by Extracellular Matrices in Vertebrates | p. 133 |
Introduction | p. 133 |
Concept of Energy Storage, Transmission and Dissipation | p. 134 |
Molecular Basis of Energy Storage and Dissipation | p. 136 |
Viscoelastic Behavior of Tendon | p. 139 |
Viscoelasticity of Self-Assembled Type I Collagen Fibers | p. 140 |
Viscoelasticity of Skin | p. 140 |
Viscoelastic Behavior of Cartilage | p. 142 |
Viscoelastic Behavior of Vessel Wall | p. 143 |
Determination of Elastic and Viscous Properties of Mineralized Tendon and Type I Collagen | p. 143 |
Effects of Strain Rate and Cyclic Loading | p. 144 |
Concept of Mechanochemical Transduction and Changes in Tissue Metabolismand Aging | p. 145 |
Relationship Between Viscoelasticity and Hierarchical Structure | p. 147 |
Aligned Collagen Networks and Mechanical Models of Tendon | p. 148 |
Mechanical Models of Orientable ECMs | p. 150 |
Mechanical Models of ECMs Comprised Onlyof Collagen Fibers | p. 150 |
Mechanical Models of Composite ECMs Containing More Than Collagen Fibers | p. 151 |
Conclusions | p. 152 |
References | p. 153 |
Nanoscale Deformation Mechanisms in Collagen | p. 155 |
Introduction | p. 155 |
Deformation at the Fiber Bundle Level | p. 156 |
Fibrillar and Molecular Deformation Mechanisms | p. 158 |
Mineralized Collagen Deformation | p. 165 |
Conclusion | p. 169 |
References | p. 170 |
Hierarchical Nanomechanics of Collagen Fibrils: Atomistic and Molecular Modeling | p. 175 |
Introduction | p. 175 |
Deformation and Fracture: An Introduction | p. 177 |
Collagen Structure - From Atoms to Tissue | p. 178 |
Outline of This Chapter | p. 180 |
Numerical Simulation Techniques and Theoretical Framework | p. 180 |
Multi-scale Modeling of Deformation and Failure | p. 181 |
Basicsof Atomistic Modeling | p. 182 |
Large-Scale Parallelized Computing | p. 183 |
Analysisand Visualization | p. 184 |
Complementary Experimental Methods | p. 185 |
Summary | p. 185 |
Deformation and Fracture of Single Tropocollagen Molecules | p. 185 |
Atomistic Model | p. 186 |
Tensileand Compressive Loading | p. 190 |
Bending a Single Tropocollagen Molecule | p. 195 |
Shearing Two Tropocollagen Molecules | p. 196 |
Developmentof a Mesoscopic, Molecular Model | p. 197 |
Validation of Mesoscale Model in Tensile Deformation | p. 202 |
Stretching an Ultra-long Tropocollagen Molecule: Mesoscale Modeling | p. 202 |
Discussionand Conclusion | p. 203 |
Deformationand Fracture of Collagen Fibrils | p. 205 |
Model Geometryand Molecular Simulation Approach | p. 205 |
Size-Dependent Properties: Effects of Molecular Length | p. 206 |
Effect of Cross-Link Densities | p. 214 |
Nanomechanics of Mineralized Collagen Fibrils: Molecular Mechanicsof Nascent Bone | p. 221 |
Introduction | p. 222 |
Molecular Model | p. 224 |
Computational Results: Elastic, Plastic Regime and Fracture | p. 225 |
Discussion | p. 230 |
Conclusion | p. 232 |
Structure-Property Relationships in Biological Protein Materials | p. 233 |
Cross-Scale Interactions: Fracture Mechanisms in Collagenous Tissue | p. 234 |
The Significance of Hierarchical Features | p. 237 |
Universality Versus Diversity | p. 237 |
Discussionand Conclusion | p. 239 |
References | p. 240 |
Mechanical Adaptation and Tissue Remodeling | p. 249 |
Introduction | p. 249 |
Collagen Adaptation to Loading - Biochemical Approaches | p. 250 |
Dynamics of Collagen Metabolism in Human Tendon and Skeletal Musclewith Mechanical Loading | p. 250 |
Regulatory Factors for Collagen Adaptation to Exercise | p. 252 |
Interplay Between Collagen-Rich Matrix and Contracting Skeletal Muscle | p. 254 |
Role for Stem Cells in Tendon Adaptation and Healing | p. 255 |
Mechanical Properties of Human Tendon, In Vivo | p. 256 |
Tendon Hypertrophy | p. 256 |
Regional Differencesin Cross-Sectional Area | p. 257 |
The Ultrasonography Method | p. 258 |
Human Aponeurosis Shear, In Vivo | p. 258 |
Mechanical Properties of Individual Human Tendon Fascicles | p. 260 |
Force Transmission Between Human Tendon Fascicles | p. 261 |
References | p. 263 |
Tendons and Ligaments: Structure, Mechanical Behavior and Biological Function | p. 269 |
Introduction | p. 270 |
Tendon-Ligament Force Transmission and Weight Savings | p. 271 |
Tendon and Ligament Compliance, Resilience and Functional Stress Limits | p. 275 |
Tendon Elastic Energy Savings During Locomotion | p. 280 |
Role of Tendon Elasticity in Jumping and Acceleration | p. 281 |
References | p. 282 |
Collagen in Arterial Walls: Biomechanical Aspects | p. 285 |
Introduction | p. 285 |
Structureofthe Arterial Wall | p. 286 |
Intima | p. 287 |
Media | p. 288 |
Adventitia | p. 289 |
Typical Biomechanical Behavior of the Arterial Wall | p. 290 |
Layer-Specific Mechanical Properties of Human Arteries | p. 292 |
Structural Quantification of Collagen Fibers in Arterial Walls | p. 296 |
Polarized Light Microscopy | p. 296 |
Small-Angle X-Ray Scattering | p. 298 |
Computer Vision Analysis | p. 300 |
Models for the Elastic Response of Arterial Walls | p. 302 |
The Basic Building Block for a Structural Model | p. 302 |
A Structural Modelfor Arterial Layers | p. 304 |
Arterial Models Considering Fiber Dispersion | p. 306 |
Collagen Fiber Remodelingin Arterial Walls | p. 311 |
References | p. 319 |
The Extracellular Matrix of Skeletal and Cardiac Muscle | p. 325 |
Introduction | p. 326 |
General Structure of IMCT | p. 327 |
Striated Muscle: Gross Morphology of Intramuscular Connective Tissue | p. 327 |
Composition of the Perimysium and Endomysium | p. 331 |
The Amount, Composition and Architecture of Endomysium and Perimysium Vary Between Different Striated Muscles | p. 332 |
The Orientation of Collagen Fibers in Perimysium and Endomysium Changes with Muscle Length | p. 334 |
Mechanical Properties of the Perimysium: Modelsand Measurements | p. 337 |
Mechanical Properties of the Endomysium: Modelsand Measurements | p. 338 |
Mechanical Roles In Vivo for Perimysium and Endomysium inStriated Muscles | p. 339 |
Endomysial Role in Force Transmission | p. 339 |
My of ascial Force Transmission | p. 342 |
Perimysium: Coordination of Shape Change on Muscle Contraction | p. 343 |
Connective Tissue Networks Within Cardiac Muscle | p. 344 |
The Structure of the Cardiac Wall | p. 344 |
Structure and Arrangement of ECM Within the Myocardium | p. 346 |
Mechanical Roles for ECM in the Myocardium | p. 348 |
Heart Valvesare Special ECM Structures | p. 351 |
Conclusions | p. 353 |
References | p. 353 |
The Cornea and Sclera | p. 359 |
Introduction | p. 360 |
Macroscopic Structure | p. 360 |
Microscopic Structure | p. 361 |
Nanoscopic Structure | p. 363 |
Composition of the Corneal Stroma | p. 365 |
The Basisof Corneal Shape-Collagen Lamella Organization | p. 366 |
X-ray Scattering Used to Determine Lamellar Organizationinthe Cornea | p. 368 |
Corneal Biomechanics | p. 373 |
Corneal Ectasia | p. 376 |
The Basis of Corneal Transparency - Collagen Fibril Organization | p. 378 |
Transparencyin the Normal Cornea | p. 378 |
Light Scatteringin Swollen Corneas | p. 381 |
Artificial Corneal Constructs | p. 384 |
The Sclera | p. 387 |
Scleral Structure | p. 387 |
Scleral Composition | p. 388 |
Scleral Biomechanics and the Development of Myopia | p. 389 |
Conclusion | p. 392 |
References | p. 393 |
Collagen and the Mechanical Properties of Bone and Calcified Cartilage | p. 397 |
Introduction | p. 397 |
Structure of Bone | p. 397 |
Mechanical Propertiesof Compact Bone | p. 400 |
Mechanical Properties of Cancellous (Trabecular) Bone | p. 404 |
Collagen-Mineral Interactions and the Effect of Different Collagen/Mineral Ratios on the Mechanical Properties of Bone | p. 405 |
The Effectof Remodelingon Mechanical Properties | p. 411 |
A Natural Experiment | p. 412 |
The Effect of Differences of Collagen on Bone's Mechanical Properties | p. 413 |
Aging | p. 413 |
Osteoporosis and Osteoarthritis | p. 414 |
Osteogenesis Imperfecta | p. 414 |
Calcified Cartilage | p. 415 |
References | p. 417 |
Dentin | p. 421 |
Introduction | p. 421 |
Composition and Main Features | p. 423 |
Functionsof Dentin | p. 423 |
Dentinasa Material | p. 428 |
Average Materials Propertiesof Dentin | p. 429 |
Variation of Properties as a Design Concept - Elastic Properties | p. 430 |
Anisotropic Failure Properties | p. 432 |
Dentin Microstructureasthe Basisfor Mechanical Properties | p. 434 |
Root Dentin | p. 435 |
Crown Dentin | p. 436 |
Variations of """"Normal"""" Dentin Structure | p. 438 |
""""Abnormal"""" Forms of Dentin | p. 439 |
Conclusion | p. 441 |
References | p. 442 |
Genetic Collagen Diseases: Influence of Collagen Mutations on Structure and Mechanical Behavior | p. 447 |
Introduction | p. 447 |
Osteogenesis Imperfecta | p. 448 |
General Description - OI Types | p. 448 |
Genotype/Phenotype | p. 448 |
OI Phenocopiesin Miceand Men | p. 458 |
Other Fibrillar Collagen Mutations that Affect Tissue Structure and Mechanical Behavior | p. 461 |
Discussion | p. 463 |
Conclusion | p. 464 |
References | p. 464 |
Biomimetic Collagen Tissues: Collagenous Tissue Engineering and Other Applications | p. 475 |
Introduction | p. 475 |
Synthesisand Cultureof Collagen Gels | p. 476 |
Collagen Self-Assemblyin Solution | p. 476 |
FPCL/Tissue Equivalent(TE) | p. 476 |
Entrapmentof Cells/Compaction | p. 477 |
Generationof Fiber Alignment | p. 479 |
Free Floatingor Constrained | p. 479 |
Collagenand Cell Concentration | p. 480 |
Matrix Synthesisand Cross-Link Formation | p. 481 |
Conclusions | p. 482 |
Mechanical Propertiesof Collagen Gelsand TEs | p. 482 |
Shear | p. 483 |
Extension | p. 485 |
Compression | p. 488 |
Effect of Gelation Conditions on Properties of Gels | p. 489 |
Conclusions | p. 489 |
Applications | p. 489 |
Control of TE Properties | p. 490 |
Boundary Conditions - Free Surfaces and Mechanical Constraints | p. 491 |
Mechanical Stimulation for Improved Alignment and Matrix Composition | p. 493 |
Medium Additivesfor Improved TE Properties | p. 495 |
Limitationsand Future Directions | p. 496 |
References | p. 496 |
Index | p. 505 |
Table of Contents provided by Publisher. All Rights Reserved. |
ISBN: 9780387739052
ISBN-10: 038773905X
Published: 1st May 2008
Format: Hardcover
Language: English
Number of Pages: 528
Audience: Professional and Scholarly
Publisher: Springer Nature B.V.
Country of Publication: US
Dimensions (cm): 23.39 x 15.6 x 2.87
Weight (kg): 0.82
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