Historical folklore indicates that Asklepios (circa 900 BC), the fir~t western doctor of ancient Greece, treated many patients with rheumatic diseases of 1 joints ,2. Later, Hippocrates (circa 400 BC), who claimed to have learned from Asklepios, used the term arthritis in reference to joint diseases: "When the disease of arthritis strikes, acute inflammation and pain attacks the joints of the body ... ". Indeed, arthritic joint disease dates much farther back into antiquity than Asklepios. Many modern anthropologists have noted degenerative joint disease in the fossils of Neanderthal man (archanthropus europeus petraloniensis) and even in those of dinosaurs. More recent scientific studies on joints date back to the work of the great English anatomist Hunter who wrote "The Structure and Diseases of Articular Cartilage" in the Philosophical Transactions of London in 1743. The notion that osteoarthritis results from the wearing away of cartilage was copiously documented by the histological observations of the German physician Ecker in 1843. This idea was further supported by Pommer (1927) who felt that mechanical stresses played important roles in the initiation and propagation of cartilage lesions leading to osteoarthritis. This same conclusion was reached by the assembled distinguished experts at a National Institutes of Health Workshop 3 held in 1986 .

Biomechanics is concerned with the response of living matter to forces, and its study has taken long strides in recent years. In the past two decades, biomechanics has brought improved understanding of normal and patho physiology of organisms at molecular, cellular, and organ levels; it has helped developing medical diagnostic and treatment procedures; it has guided the design and manufacturing of prosthesis and instruments; it has suggested the means for improving human performance in the workplace, sports, and space; it has made us understand trauma in war and in peace. Looking toward the future, we see many more areas of possible development such as: reduction in heart diseases and atherosclerosis improved vascular assist and replacement devices, including a permanent artifical heart enhanced oxygen transport in the lung understanding and control of growth and changes mechanics of neuromuscular control and robotics prevention of joint degeneration permanent total joint replacements prevention of low back pain workplace designs to enhance productivity ambulation systems for the handicapped fully implantable hearing aids improved understanding of the mechanisms for permanent disability injuries identification of factors such as alcohol use and disease influence on impact tolerance improved cellular bioreactor designs mechanics of DNA and its application in biotechnology. * Obviously, the attainment of these prospects will greatly improve the quality of human life and reduce the costs of living. * This list is from a report by the U. S. National Committee on Biomechanics, April, 1985.

This classic text has been completely revised and updated to reflect the latest advances in orthopaedic biomechanics, and the successful application of mechanical laws to the locomotor system of the human body. The Second Edition features new chapters on cell-matrix interactions in articular cartilage and on the quantitative anatomy of diarthrodial joints, as well as expanded coverage of the biomechanics of artificial hip and knee joints.

A trustworthy clinical companion, the textbook offers best practice and management strategies for these common joint diseases. Formerly published as Osteoarthritis, the extensively revised third edition of the Oxford Textbook of Osteoarthritis and Crystal Arthropathy provides up-to-date and evidence-based guidance on how to assess, diagnose, and manage patients. A prestigious and international author team ensure information is expert and relevant-this is a practical tool for clinicians managing people with osteoarthritis, gout, and other crystal-associated arthritis. Confidently consider and chose the right blend of treatment for your patient, whether physical, pharmacological, surgical, or supportive. The Oxford Textbook of Osteoarthritis and Crystal Arthropathy provides full coverage of joint failure, and includes detailed sections on epidemiology, risk factors, clinical assessment, and investigations. This edition also now includes new sections on gout and other crystal arthropathies. Clinically relevant and easily understandable overviews of basic science, including pathology and pain physiology, along with critical appraisal of current guidelines, make this a highly valuable resource. Significant coverage is also given to patient education and the involvement of the patient in management planning. Also highly illustrated, the textbook is a strong reference tool with summary boxes and key points at the end of chapters making it easy to find information quickly and help you deliver the optimum patient outcome. The textbook equips rheumatologists and musculoskeletal health professionals with the knowledge to provide best possible patient care.

Extensively revised from a successful first edition, this book features a wealth of clear illustrations, numerous worked examples, and many problem sets. It provides the quantitative perspective missing from more descriptive texts, without requiring an advanced background in mathematics, and as such will be welcomed for use in courses such as biomechanics and orthopedics, rehabilitation and industrial engineering, and occupational or sports medicine.

Proceedings of the NATO Advanced Study Institute on Biomechanics of Normal and Pathological Human Articulating Joints, Estoril, Portugal, 20 June-1 July, 1983

Contains papers presented at the Third International Symposium on Computer Methods in Biomechanics and Biomedical Engineering (1997), which provide evidence that computer-based models, and in particular numerical methods, are becoming essential tools for the solution of many problems encountered in the field of biomedical engineering. The range of subject areas presented include the modeling of hip and knee joint replacements, assessment of fatigue damage in cemented hip prostheses, nonlinear analysis of hard and soft tissue, methods for the simulation of bone adaptation, bone reconstruction using implants, and computational techniques to model human impact. Computer Methods in Biomechanics and Biomedical Engineering also details the application of numerical techniques applied to orthodontic treatment together with introducing new methods for modeling and assessing the behavior of dental implants, adhesives, and restorations. For more information, visit the "http://www.uwcm.ac.uk/biorome/international symposium on Computer Methods in Biomechanics and Biomedical Engineering/home page, or "http://www.gbhap.com/Computer_Methods_Biomechanic s_Biome dical_Engineering/" the home page for the journal.

Biomechanics applies the principles and rigor of engineering to the mechanical properties of living systems. This book integrates the classic fields of mechanics--statics, dynamics, and strength of materials--using examples from biology and medicine. Fundamentals of Biomechanics is excellent for teaching either undergraduates in biomedical engineering programs or health care professionals studying biomechanics at the graduate level. Extensively revised from a successful first edition, the book features a wealth of clear illustrations, numerous worked examples, and many problem sets. The book provides the quantitative perspective missing from more descriptive texts, without requiring an advanced background in mathematics. It will be welcomed for use in courses such as biomechanics and orthopedics, rehabilitation and industrial engineering, and occupational or sports medicine.