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Biomaterials offer the potential to restore and supplement the function of tissues and organs following injury or disease. The use of inorganic materials in the clinic to date has been widespread, in the form of metallic joint replacements and ceramic dental and bone implants. Exciting new medical applications continue to emerge, enabled by innovative materials for neural interfaces and as anti-fouling agents. The Chemistry of Inorganic Biomaterials overviews the underlying chemistry behind the most common and cutting-edge inorganic materials in current use, or approaching use, in vivo. Framed from the context of the overarching material class/application, it provides a balanced and critical overview of the field by bringing together experts in both the fundamental inorganic and material chemistry, as well as key clinical considerations for biomedical applications. Written in an accessible style, this book will be of interest to advanced undergraduates, postgraduates and researchers in biomaterials, inorganic materials and materials chemistry.

In a bid to develop synthetic molecules and materials that are capable of mimicking biological recognition and function, intensive research in the fields of synthetic receptor technologies, smart materials, synthetic biology and smart indicators has been under way for the past 20-30 years. The development of synthetic receptors continues to grow rapidly. Novel molecular architectures, with ever improving selective binding properties are constantly being described, and in some cases providing much-needed physical insights into the nature of non-covalent interactions and molecular recognition. Such receptor systems are finding increasingly esoteric applications and this book captures the key developments at the synthetic receptor/biology/detection science interface. The editor has extensive experience in applying smart materials and synthetic receptors to the development of biosensors. Reddy has developed smart, permselective and biocompatible molecularly imprinted polymers and membrane materials for the sensor/sample interface and the advancement of smart materials-based electrochemical, quartz crystal and optical sensors for medical, food and environmental applications. Chapters demonstrate how growing disciplines such as biomimetics, synthetic receptor technologies, pattern recognition and nanotechnology are being used to develop new smart materials for diagnostic sensor and biosensor applications. Postgraduate students and researchers in academia and industry will benefit from this resourceful handbook.