Biomaterials are used in many areas of medicine, particularly in surgery and d- tistry. In orthopedic surgery, total hip arthroplasty has been extremely successful, and has been called ‘the operation of the 20th century’. Total hip arthroplasty is r- tinely performed every day in most orthopedic departments. Over the last decades, many efforts have been made to better integrate the components within the recipient bones, to decrease the friction at the prosthetic interface, and to minimize wear. Minimally invasive procedures have been developed, and various designs are inte- ed to preserve as much as possible of the bone stock of young patients. By contrast, the clinical results have been less favorable after various hand and wrist joint replacements. Many early designs have failed, the clinical data of the current pr- theses are frequently quite limited, and there is often insufficient biomechanical information available, although trapezio-metacarpal arthroplasty in particular has become quite popular in recent years. In order to promote progress in hand and wrist arthroplasty, Antonio Merolli and Thomas J. Joyce have edited this lovely book, whose chapters discuss current research and recent advances in hand and wrist arthroplasty. The problems of metacarpophalangeal joint prostheses are particularly developed.

Musculoskeletal applications of tissue engineering will be among the first to achieve widespread clinical use, and the resulting shift in clinical and surgical paradigms will highlight the need for an authoritative text on tissue engineering for musculoskeletal tissues including nerve, bone, tendon, skin, vessels, and cartilage. This book will serve the needs of a large readership including plastic surgeons, orthopedic surgeons, medical residents and medical students, researchers and academic faculty in regenerative medicine and biomedical engineering, and medical device experts. This textbook will serve as the curriculum for undergraduate and graduate courses in biomedical engineering and surgery.Notable contributors to this volume include Antonios G Mikos, PhD; Wei Liu, MD; Yilin Cao, MD; Mark Randolph, MAS; Jennifer Elisseeff, PhD; Geoffrey C Gurtner, MD; Michael T Longaker, MD; and James Chang, MD, all of whom are leaders in tissue engineering research and applications.

Written by respected experts in the field, Biomaterials in Orthopedics discusses bioabsorbable biomaterials for bone repair, nondegradable materials in orthopaedics and delivery systems. Topics in this text include biocompatibility and the biomaterial/tissue interface; self-reinforced bioabsorbable devices and guided regeneration; bone substitutes, including porous ceramics; and non-corrosive coatings for implants.

As biomaterials are used in medical devices, meeting needs in such diverse surgical disciplines as ophthalmology, cardiology, neuromuscular surgery, orthopaedics, dentistry, etc., they must have intimate contact with patient's tissue or body fluids, providing a real physical interface which seriously restricts developments. This book is written for those who would like to advance their knowledge of biomaterials. The subject matter of the book is divided into twelve chapters dealing with the structure and relationship of biological and man-made biomaterials. The application of these materials for various medical devices, and recent developments in tissue engineering, are also discussed.

This book reviews the biomaterials (metallic, non-metallic and bone allografts) used for orthopaedic applications and explains both the engineering and clinical aspects of their use and performance within the human body. Successful orthopaedic device development and surgical practice requires a strong integration of different disciplines of science, including anatomy, biology, biomechanics, biomaterials, metallurgy, materials science, chemistry, and, more recently, biotechnology and nanotechnology. This volume helps bridge the gap among these disciplines, with emphasis on the fundamental principles of biomechanics and biomaterials. Case studies are used to explain and illustrate the concepts. Specific applications addressed include internal and external bone fracture fixation, hip and knee joint replacements, spine implants and disc prostheses, and the application of structural bone allografts for patients with bone tumors (sarcoma). The concepts presented are not only applicable to current devices and surgical practice, but will also help researchers, device designers, and physicians address key issues, such as aseptic loosening of the femoral stem component, implant wear, acetabular and femoral osteolysis, among others. This book will be useful for a broad range of researchers, clinicians, engineers, and students who are involved in the development, selection, processing, or application of orthopaedic implants.

As biomaterials are used in medical devices, providing needs in such diverse surgical disciplines as ophthalmology, cardiology, neuromuscular surgery, orthopedics, dentistry etc., they must have intimate contact with patient's tissue or body fluid providing a real physical interface, which restricts developments most seriously. This book is written for those who would like to advance their knowledge of biomaterials. The subject matter of the book is divided into twelve chapters dealing with structure and relationship of biological and man made biomaterials. The application of these materials for various medical devices and recent developments in tissue engineering has also covered.