Surface Engineering Of Polymeric Biomaterials

Biomaterials work in contact with living matter and this gives a number of specific requirements for their surface properties, such as bioinertness or bioactivity, antibiofouling, and so on. Surface engineering based on physical, chemical, physical-chemical, biochemical or biological principles is important for the preparation of biomaterials with the desired biocontact properties. This book helps the reader gain the knowledge to enable them to work in such a rapidly developing area, with a comprehensive list of references given for each chapter. Strategies for tailoring the biological response through the creation of biomaterial surfaces resistant to fouling are discussed. Methods of eliciting specific biomolecular interactions that can be further combined with patterning techniques to engineer adhesive areas in a noninteractive background are also covered. The theoretical basis of surface engineering for improvement of biocontact properties of polymeric biomaterials as well as the current state-of-the-art of the surface engineering of polymeric biomaterials are presented. The book also includes information on the most used conventional and advanced surface engineering methods. The book is targeted at researchers, post-doctorates, graduate students, and those already working in the field of biomaterials with a special interest in the creation of polymeric materials with improved biocontact properties via surface engineering.

Surface Engineering of Polymer Membranes covers the processes that modify membrane surfaces to improve their in-service performance, meaning, to confer surface properties which are different from the bulk properties. Purposes may be to minimize fouling, modulate hydrophilicity/ hydrophobicity, enhance biocompatibility, create diffusion barriers, provide functionalities, mimic biomembranes, fabricate nanostructures, etc. First, the basics of surface engineering of polymer membranes are covered. Then topics such as surface modification by graft polymerization and macromolecule immobilization, biomimetic surfaces, enzyme immobilization, molecular recognition, and nanostructured surfaces are discussed. This book provides a unique synthesis of the knowledge of the role of surface chemistry and physics in membrane science. Dr. Zhikang Xu of the Institute of Polymer Science of Zhejiang University has eight Chinese patents and in 2006 was honored as a Distinguished Young Scholar by the National Natural Science Foundation of China (NNSFC).

This book provides a comprehensive overview of the latest advances in a wide range of biomaterials for the development of smart and advanced functional materials. It discusses the fundamentals of bio-interfacial interactions and the surface engineering of emerging biomaterials like metals and alloys, polymers, ceramics, and composites/nanocomposites. In turn, the book addresses the latest techniques and approaches to engineering material surfaces/interfaces in, e.g., implants, tissue engineering, drug delivery, antifouling, and dentistry. Lastly, it summarizes various challenges in the design and development of novel biomaterials. Given its scope, it offers a valuable source of information for students, academics, physicians and particularly researchers from diverse disciplines such as material science and engineering, polymer engineering, biotechnology, bioengineering, chemistry, chemical engineering, nanotechnology, and biomedical engineering for various commercial and scientific applications.

Characterization of Polymeric Biomaterials presents a comprehensive introduction on the topic before discussing the morphology and surface characterization of biomedical polymers. The structural, mechanical, and biological characterization is described in detail, followed by invaluable case studies of polymer biomaterial implants. With comprehensive coverage of both theoretical and experimental information, this title will provide scientists with an essential guide on the topic of these materials which are regularly used for clinical applications, such as implants and drug delivery devices. However, a range of novel polymers and the development and modification of existing medical polymers means that there is an ongoing need to satisfy particular design requirements. This book explains the critical and fundamentals methods to characterize polymer materials for biomedical applications. Presents a self-contained reference on the characterization of polymeric biomaterials Provides comprehensive information on how to characterize biomedical polymers in order to improve design and synthesis Includes useful case studies that demonstrate the characterization of biomaterial implants

Biomaterials have had a major impact on the practice of contemporary medicine and patient care. Growing into a major interdisciplinary effort involving chemists, biologists, engineers, and physicians, biomaterials development has enabled the creation of high-quality devices, implants, and drug carriers with greater biocompatibility and biofunctiona

This book focuses on biomaterials of different forms used for medical implants. The authors introduce the characteristics and properties of biomaterials and then dedicate special chapters to metallic, ceramic, polymeric and composite biomaterials. Case studies on sterilization methods by biomaterials are also presented. Finally, the authors describe the degradation and effects of biomaterials in living tissue.

Biomaterials is a dynamic, changing field that impacts modern medicine and therapeutics in diverse ways. This modern, all-encompassing comprehensive treatment accurately captures the diversity, breadth and dimensions of the biomaterials field. It describes the many modern aspects of biomaterials - from basic science to clinical applications - across the formulations and chemistry of polymers, ceramics and metals and their use in various biomedical devices and implants, as well as their clinical performance and host responses. Conventional clinically accepted biomaterials as well as emerging prototypes, studies and new ideas, along with visionary predictions of future biomaterials compositions and capabilities, are all extensively covered by hundreds of experts in the field. Reviews the current status of nearly all biomaterials in the field by analyzing their strengths and weaknesses, performance as well as future prospects Presents appropriate analytical methods and testing procedures in addition to potential device applications Provides strategic insights for those working on diverse application areas such as R&D, regulatory management, and commercial development