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Materials science biomaterials

Marques, A. P. C., H. R. Coutinho, O. P. Reis, R. L. (2005). Effect of starch-based biomaterials on the in vitro proliferation and viability of osteoblast-like cells. Journal of Materials Science Materials in Medicine, Vol. 16,1, (September 2005), pp. (833-842 ISSN 0957-4530... [Pg.82]

Nicholson, J. W. (1992). The application of the reptation hypothesis to polyelectrolyte biomaterials. Journal of Materials Science, Materials in Medicine, 3, 157-9. [Pg.187]

Biomaterials Research Group, National Institute of Material Science, Tsukuba, Japan... [Pg.233]

Mano, J. F., Reis, R. L. (2004). Viscoelastic monitoring of starch-based biomaterials in simulated physiological conditions. Materials Science and Engineering A, 370, 321-325. [Pg.443]

This volume has been arranged in five chapters aimed at discussing nanostructured materials and methods of their characterization (Chapter I), advanced express-methods for detection and analysis of biological species (Chapter II), methods of protection (Chapter III) and medical treatment (Chapter IV) of patients with incorporated contaminants, and specifically extracorporeal methods of decontamination of the human body (Chapter V). All papers in this book have been peer reviewed prior to publication. We believe that this volume will be of major interest to researchers and students working in the area of materials science and engineering, chemistry, biosensors, biomaterials, extracorporeal methods, and therapeutics. [Pg.336]

Institute for Material Science and Max Bergmann Center of Biomaterials, Dresden University of Technology, D-01062 Dresden, Germany,... [Pg.213]

Institute for Material Science and Max Bergmann Center of Biomaterials... [Pg.487]

Research in this discipline is important because of the potential to accelerate the materials development for sensors by applying what has already been learned in other fields, such as electronics, aerospace, and biomaterials. By combining an understanding of sensor issues with a broad understanding of how polymer problems have been solved in other fields, polymer development for specific sensor applications will advance more rapidly. The logical progression from materials development by trial and error is to tailor new materials systematically for each specific application, based on understanding of material science. [Pg.6]

As the disciplines of cell-tissue engineering and nanophase material science develop and mature, the preceding design criteria will be expanded and refined. Undoubtedly, nanophase ceramics have great potential to become the next generation of choice proactive biomaterials for innovative biotechnology and biomedical applications that could have profound clinical impact. [Pg.160]

Dr. Thomas Chandy is a research associate in the Division of Chemical Engineering Material Sciences, Biomedical Engineering Institute and Interventional Cardiology Laboratories at the University of Minnesota. He has over two decades research experience at Sri Chlia Tvunal Institute for Medical Sciences Technology, Trivandrum, India, in the area of biomaterial surface engineering and blood biomaterial interactions. More recently. Dr. Chandy and Dr. Rao have focused their research on platelet biomaterial interactiorrs and development of assist devices for cardiovascular applications. They continue to be active in this newly evolving area of research. [Pg.362]

Supramolecular and Colloidal Structures in Biomaterials and Biosubstrates, Proceedings of the Fifth Royal Society- Unilever Indo- UK Forum in Material Science and Engineering, 1999, ed. M. Lai, Imperial College Press, London, U.K., 2000... [Pg.17]

Food materials, biological, and pharmaceutical scientists have recognized that water plays an important role in the structure, functionality and stability of biomaterials. The ubiquitous water molecules are small and simple, but they develop complex interactions and present unusual properties for unprepared observers. We thus aimed to overlap areas of different fields of research having in common problems faced by how and why water behaves as it does. The theme chosen for the ISOPOW 9 meeting was "Water properties related to the technology and stability of food, pharmaceutical, and biological materials." The understanding of the properties of water in foods, eiuiched by approaches from polymer and materials sciences and by the advances of analytical techniques, enabled us to detect unsolved questions and the need to go deeply into them. [Pg.764]

Journal of Materials Science Materials in Medicine. The Netherlands Kluwer. ISSN 0957-4530. Official journal of the European Society for Biomaterials. [Pg.277]

Duncan Q.M. Craig, Ph.D., is head of pharmacy at the School of Chemical Sciences and Pharmacy at the University of East Anglia, Norwich, U.K. Previously, he worked at the School of Pharmacy, The Queen s University of Belfast, joining in 1999. There he set up the Pharmaceutical Materials Science Programme within the Drug Delivery and Biomaterials Group. He was previously a reader in pharmaceutical materials science at the School of Pharmacy, University of London. [Pg.411]


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