Elsevier Protein Immobilization on Nanomaterials (Foundations and Frontiers in Enzymology)

Protein Immobilization on Nanomaterials explores advanced technologies and methodologies for immobilizing proteins on nanomaterial surfaces, highlighting their innovative applications in biotechnology, medicine, and materials engineering. Sections delve into various methods of protein immobilization, including physical adsorption, covalent binding, and encapsulation, providing detailed explanations and practical examples. The book also covers the characterization of protein-nanomaterial conjugates using advanced analytical techniques such as spectroscopy and microscopy. With contributions from leading experts, the book presents colorful figures and practical examples to facilitate understanding of complex concepts. It is an ideal resource for researchers and practitioners on the latest techniques and advances. Key topics covered include the use of protein-nanomaterial conjugates in biosensors, diagnostic devices, drug delivery systems, and environmental monitoring. Academic researchers in biotechnology and nanotechnology, biochemical engineers, medical device developers, and scientists specializing in nanomaterials and surface engineering will find this a valuable resource. It will also be important for postgraduate students and professionals in the health technology sector, providing the knowledge and tools needed to advance their work and inspire multidisciplinary innovation. Provides comprehensive coverage of protein immobilization techniques, including physical adsorption, covalent binding, and encapsulation Presents practical applications and case studies, demonstrating the use of protein-nanomaterial conjugates in biosensors and medical diagnostics Examines advanced insights into nanomaterials and surface engineering methods to optimize protein interactions Highlights multidisciplinary and innovative applications across biotechnology, medicine, and materials engineering Includes clear visualizations and examples to facilitate understanding of complex concepts