Multiscale Biomechanics And Tribology Of Inorganic And Organic Systems

This open access book gathers authoritative contributions concerning multiscale problems in biomechanics, geomechanics, materials science and tribology. It is written in memory of Sergey Grigorievich Psakhie to feature various aspects of his multifaceted research interests, ranging from theoretical physics, computer modeling of materials and material characterization at the atomic scale, to applications in space industry, medicine and geotectonics, and including organizational, psychological and philosophical aspects of scientific research and teaching as well. This book covers new advances relating to orthopedic implants, concerning the physiological, tribological and materials aspects of their behavior; medical and geological applications of permeable fluid-saturated materials; earthquake dynamics together with aspects relating to their managed and gentle release; lubrication, wear and material transfer in natural and artificial joints; material research in manufacturing processes; hard-soft matter interaction, including adhesive and capillary effects; using nanostructures for influencing living cells and for cancer treatment; manufacturing of surfaces with desired properties; self-organization of hierarchical structures during plastic deformation and thermal treatment; mechanics of composites and coatings; and many more. Covering established knowledge as well as new models and methods, this book provides readers with a comprehensive overview of the field, yet also with extensive details on each single topic.

Biomaterials are composed of metallic materials, ceramics, polymers, composites and hybrid materials. Biomaterials used in human beings require safety regulations, toxicity, allergic reaction, etc. When used as implantable materials their biological compatibility, biomechanical compatibility, and morphological compatibility must be acessed. This book explores the design and requirements of biomaterials for the use in implantology.

Medical Additive Manufacturing: Concepts and Fundamentals provides an overview of the latest research in the field of additively manufactured medical materials. It starts with a broad overview of the current state of medical additive manufacturing and then dives into cutting-edge topics such as medical imaging technologies for additive manufacturing and computer-aided design principles for anatomic modeling. The chapters discuss the state of additive manufacturing in an array of medical fields such as radiology, tissue engineering, nuclear medicine, orthopedics, surgery, cardiology, neurology, optometry, obstetrics, and veterinary medicine. This book concludes with chapters discussing regulatory considerations for additive manufacturing in hospitals and what the future holds for the field. Synthesizes the latest research in medical additive manufacturing Outlines basic additive manufacturing concepts, the different types of manufacturing, optimal material selection, design production and configuration, and more Discusses cutting-edge applications in drug delivery, tissue engineering, biosensor devices, electrically conductive polymers, green catalysis, and more

Impact of Engineered Nanomaterials in Genomics and Epigenomics Overview of current research and technologies in nanomaterial science as applied to omics science at the single cell level Impact of Engineered Nanomaterials in Genomics and Epigenomics is a comprehensive and authoritative compilation of the genetic processes and instructions that specifically direct individual genes to turn on or off, focusing on the developing technologies of engineering nanomaterials and their role in cell engineering which have become important research tools for pharmaceutical, biological, medical, and toxicological studies. Combining state-of-the art information on the impact of engineered nanomaterials in genomics and epigenomics, from a range of internationally recognized investigators from around the world, this edited volume offers unique insights into the current trends and future directions of research in this scientific field. Impact of Engineered Nanomaterials in Genomics and Epigenomics includes detailed information on sample topics such as: Impact of engineered nanomaterials in genomics and epigenomics, including adverse impact on glucose energy metabolism Toxicogenomics, toxicoepigenomics, genotoxicity and epigenotoxicity, and mechanisms of toxicogenomics and toxicoepigenomics Adverse effects of engineered nanomaterials on human environment and metabolomics pathways leading to ecological toxicity Meta-analysis methods to identify genomic toxicity mechanisms of engineered nanomaterials and biological effects of engineered nanomaterial exposure Artificial intelligence and machine learning of single-cell transcriptomics of engineered nanoparticles and trends in plant nano-interaction to mitigate abiotic stresses This comprehensive work is a valuable and excellent source of authoritative and up-to-date information for advanced students and researchers, toxicologists, the drug industry, risk assessors and regulators in academia, industry, and government, as well as for clinical scientists working in hospital and clinical environments.

MULTISCALE BIOMECHANICS Model biomechanical problems at multiple scales with this cutting-edge technology Multiscale modelling is the set of techniques used to solve physical problems which exist at multiple scales either in space or time. It has been shown to have significant applications in biomechanics, the study of biological systems and their structures, which exist at scales from the macroscopic to the microscopic and beyond, and which produce a myriad of overlapping problems. The next generation of biomechanical researchers therefore has need of the latest multiscale modelling techniques. Multiscale Biomechanics offers a comprehensive introduction to these techniques and their biomechanical applications. It includes both the theory of multiscale biomechanical modelling and its practice, incorporating some of the latest research and surveying a wide range of multiscale methods. The result is a thorough yet accessible resource for researchers looking to gain an edge in their biomechanical modelling. Multiscale Biomechanics readers will find: Practical biomechanical applications for a variety of multiscale methods Detailed discussion of soft and hard tissues, and more An introduction to analysis of advanced topics ranging from stenting, drug delivery systems, and artificial intelligence in biomechanics Multiscale Biomechanics is a useful reference for researchers and scientists in any of the life sciences with an interest in biomechanics, as well as for graduate students in mechanical, biomechanical, biomedical, civil, material, and aerospace engineering.

Multiscale Biomechanics provides new insights on multiscale static and dynamic behavior of both soft and hard biological tissues, including bone, the intervertebral disk, biological membranes and tendons. The physiological aspects of bones and biological membranes are introduced, along with micromechanical models used to compute mechanical response. A modern account of continuum mechanics of growth and remodeling, generalized continuum models to capture internal lengths scales, and dedicated homogenization methods are provided to help the reader with the necessary theoretical foundations. Topics discussed include multiscale methods for fibrous media based on discrete homogenization, generalized continua constitutive models for bone, and a presentation of recent theoretical and numerical advances. In addition, a refresher on continuum mechanics and more advanced background related to differential geometry, configurational mechanics, mechanics of growth, thermodynamics of open systems and homogenization methods is given in separate chapters. Numerical aspects are treated in detail, and simulations are presented to illustrate models. This book is intended for graduate students and researchers in biomechanics interested in the latest research developments, as well as those who wish to gain insight into the field of biomechanics. Provides a clear exposition of multiscale methods for fibrous media based on discrete homogenization and the consideration of generalized continua constitutive models for bone Presents recent theoretical and numerical advances for bone remodeling and growth Includes the necessary theoretical background that is exposed in a clear and self-contained manner Covers continuum mechanics and more advanced background related to differential geometry, configurational mechanics, mechanics of growth, thermodynamics of open systems and homogenization methods

This book covers the latest research work done in the area of interface mechanics of collagen and chitin-based biomaterials along with various techniques that can be used to understand mechanics of biological systems and materials. Topics covered include Raman spectroscopy of biological systems, scale dependence of the mechanical properties and microstructure of crustaceans thin films as biomimetic materials, as well as the role of molecular-level modeling. The use of nanomechanics to investigate interface thermomechanics of collagen and chitin-based biomaterials is also covered in detail. This book also: • Details spectroscope experiments as well as nanomechanic experiments • Reviews exhaustively phenomenological models and Raman spectroscopy of biological systems • Covers the latest in multiscaling for molecular models to predict lab-scale sample properties and investigates interface thermomechanics