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Bioresorbable materials are extensively used for a wide range of biomedical applications from drug delivery to fracture fixation, and may remain in the body for weeks, months or even years. Accurately predicting and evaluating the degradation rate of these materials is critical to their performance and the controlled release of bioactive agents. Degradation rate of bioresorbable materials provides a comprehensive review of the most important techniques in safely predicting and evaluating the degradation rate of polymer, ceramic and composite based biomaterials.Part one provides an intr

Biomedical materials. --- Bioartificial materials --- Biocompatible materials --- Biomaterials (Biomedical materials) --- Hemocompatible materials --- Medical materials --- Medicine --- Biomedical engineering --- Materials --- Biocompatibility --- Prosthesis

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Biomedical materials --- Biomedical materials. --- Mechanical properties --- Mechanical properties. --- Biocompatible materials --- Biomaterials --- Medical materials --- Medicine --- Materials --- Biomedical engineering --- Biocompatibility --- Prosthesis --- Biomedical Engineering --- Bioartificial materials --- Hemocompatible materials --- Biomaterials (Biomedical materials) --- Biocompatible Materials. --- Materials Testing. --- Testing, Hemocompatible Materials --- Biocompatibility Testing --- Biocompatible Materials Testing --- Hemocompatibility Testing --- Testing, Biocompatible Materials --- Hemocompatibility Testings --- Hemocompatible Materials Testing --- Materials Testing, Biocompatible --- Materials Testing, Hemocompatible --- Testing, Biocompatibility --- Testing, Hemocompatibility --- Testing, Materials --- Testings, Biocompatibility --- Flexural Strength --- Biocompatible Materials --- Bioartificial Materials --- Hemocompatible Materials --- Bioartificial Material --- Biocompatible Material --- Biomaterial --- Hemocompatible Material --- Material, Bioartificial --- Material, Biocompatible --- Material, Hemocompatible --- Materials Testing --- Biomimetic Materials --- Regenerative Medicine

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Biomedical materials --- Pharmacology --- Drugs --- Medicaments --- Medications --- Medicine (Drugs) --- Medicines (Drugs) --- Pharmaceuticals --- Prescription drugs --- Bioactive compounds --- Medical supplies --- Pharmacopoeias --- Chemotherapy --- Materia medica --- Pharmacy --- Biocompatible materials --- Biomaterials --- Medical materials --- Medicine --- Biomedical engineering --- Materials --- Biocompatibility --- Prosthesis --- Research --- Bioartificial materials --- Hemocompatible materials --- Biomaterials (Biomedical materials)

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Atomistic Modeling of Materials Failure is an introduction to molecular and atomistic modeling techniques applied to solid deformation and fracture. Focusing on a variety of brittle, ductile and geometrically confined materials, this detailed overview includes computational methods at the atomic scale, and describes how these techniques can be used to model the dynamics of cracks, dislocations and other deformation mechanisms. A full description of molecular dynamics (MD) as a numerical modeling tool covers the use of classical interatomic potentials and implementation of large-scale massively parallelized computing facilities in addition to the general philosophies of model building, simulation, interpretation and analysis of results. Readers will find an analytical discussion of the numerical techniques along with a review of required mathematical and physics fundamentals. Example applications for specific materials (such as silicon, copper) are provided as case studies for each of the techniques, areas and problems discussed. Providing an extensive review of multi-scale modeling techniques that successfully link atomistic and continuum mechanical methods, Atomistic Modeling of Materials Failure is a valuable reference for engineers, materials scientists, and researchers in academia and industry.

Deformations (Mechanics) --- Fracture mechanics --- Mathematical models. --- Mechanics. --- Mechanics, Applied. --- Surfaces (Physics). --- Biomaterials. --- Nanotechnology. --- Solid Mechanics. --- Characterization and Evaluation of Materials. --- Classical Mechanics. --- Molecular technology --- Nanoscale technology --- High technology --- Biocompatible materials --- Biomaterials --- Medical materials --- Medicine --- Biomedical engineering --- Materials --- Biocompatibility --- Prosthesis --- Physics --- Surface chemistry --- Surfaces (Technology) --- Applied mechanics --- Engineering, Mechanical --- Engineering mathematics --- Classical mechanics --- Newtonian mechanics --- Dynamics --- Quantum theory --- Materials science. --- Bioartificial materials --- Hemocompatible materials --- Material science --- Physical sciences --- Biomaterials (Biomedical materials)

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Textile structure and mechanics are fundamental to the way textiles are designed, manufactured, tested and used. Structure and mechanics of textile fibre assemblies discusses aspects of fabric structure and mechanical properties such as tensile, bending and shear properties for a range of fabrics.After a general introduction illustrating the role of fabric structure and mechanics, subsequent chapters discuss the structural, tensile, bending and shear properties of woven, knitted and nonwoven fabrics. Other chapters review the structure and mechanics of yarns, coated fabrics, 2D and 3D

Human biochemistry --- Textile fabrics --- Biomedical materials. --- Surgical dressings. --- Bandages and bandaging. --- Wounds and injuries --- Human beings --- Injuries --- Trauma, Physical --- Wounds --- Surgical emergencies --- Traumatology --- First aid in illness and injury --- Surgery, Minor --- Surgical dressings --- Surgical plaster casts --- Dressings (Surgery) --- Bandages and bandaging --- Bioartificial materials --- Biocompatible materials --- Biomaterials (Biomedical materials) --- Hemocompatible materials --- Medical materials --- Medicine --- Biomedical engineering --- Materials --- Biocompatibility --- Prosthesis --- Cloth --- Fabrics --- Textile industry and fabrics --- Textiles --- Decorative arts --- Dry-goods --- Weaving --- Textile fibers --- Technological innovations. --- Treatment --- Equipment and supplies. --- Microbiology.