Comprehensive Book Examines the Use of Biomedical Polymers in Such Areas as Drug Delivery Systems and Cell Encapsulation.DUBLIN, Ireland -- Research and Markets (http://www.researchandmarkets.com/reports/c65827)has announced the addition of "Biomedical bi·o·med·i·cal adj. 1. Of or relating to biomedicine. 2. Of, relating to, or involving biological, medical, and physical sciences. Polymers" to their offering. Biomedical polymers * Reviews the latest research in this important group of biomaterials * Discusses natural, synthetic, biodegradable and non-biodegradable polymers and their applications * Examines the use of biomedical polymers in such areas as drug delivery systems and cell encapsulation * An essential reference for scientists and all those concerned with the development and use of this important group of biomaterials Given the rapid development and use of biomaterials, it is becoming increasingly important to understand the structure, processing and properties of biomedical polymers and their medical applications. With its distinguished editor and team of international contributors, Biomedical Polymers reviews the latest research on this important group of biomaterials. The book discusses natural, synthetic, biodegradable and non bio-degradable polymers and their applications. Chapters review polymeric scaffolds for tissue engineering and drug delivery systems, the use of polymers in cell encapsulation, their role as replacement materials for heart valves Heart valves Valves that regulate blood flow into and out of the heart chambers. Mentioned in: Heart Failure and arteries, and their applications in joint replacement. The book also discusses the use of polymers in biosensor A device that detects and analyzes body movement, temperature or fluids and turns it into an electronic signal. See lab on a chip and data glove. Biosensor applications. Biomedical polymers will be an essential reference for scientists and all those concerned with the development and use of this important group of biomaterials Contents: Introduction to polymeric scaffolds for tissue engineering K Harrison Introduction. Cells used in tissue engineering. The scaffold structure. Fabrication fabrication (fab´rikā´sh  n),n the construction or making of a restoration. techniques for tissue scaffolds. Supercritical fluid processing (SCF SCF Service Canadien des Forêts (Canadian Forest Service) SCF Stem Cell Factor SCF Scientific Committee on Food (European Commission) SCF Service Canadien de la Faune ). Future trends. References. Introduction to polymeric drug delivery systems K Harrison Introduction: controlled drug release. Mechanisms of action for controlled drug release. Examples of controlled release delivery systems. Commonly used polymers for drug delivery systems. Polymer characteristics and properties. Future trends. References. Hydrogels in cell encapsulation and tissue engineering A Hillel, P Shah and J Elisseeff, Johns Hopkins University Johns Hopkins University, mainly at Baltimore, Md. Johns Hopkins in 1867 had a group of his associates incorporated as the trustees of a university and a hospital, endowing each with $3.5 million. Daniel C. , USA Introduction. Structure and properties of a crosslinked hydrogel hy·dro·gel n. A colloidal gel in which the particles are dispersed in water. hydrogel a gel that contains water. hydrogel Wound care A polymer absorptive wound dressing. See Dressing. . Methods to form a hydrogel. Application to cell encapsulation and tissue engineering. Future Trends. Sources of further information and advice. References. Biodegradable polymers for drug delivery systems G S Kwon and D F Ferguson, University of Wisconsin, USA Introduction. Synthetic biodegradable block copolymers: polyanhydrides, poly(alkycyanoacrylates), polyphoshazenes and poly(phosphoesters). Biodegradable polyesters for drug delivery. Poly(ethylenimine) (PEI) and polyethylene glycol-co-poly(L-lysine)-g-histidine (PEG-co-PLL-g-His). Synthetic block copolypeptides. Future trends. References. Polymers as replacement materials for heart valves and arteries D M Espino, University of Birmingham Due to Birmingham's role as a centre of light engineering, the university traditionally had a special focus on science, engineering and commerce, as well as coal mining. It now teaches a full range of academic subjects and has five-star rating for teaching and research in several , UK Introduction. The cardiovascular system cardiovascular system: see circulatory system. cardiovascular system System of vessels that convey blood to and from tissues throughout the body, bringing nutrients and oxygen and removing wastes and carbon dioxide. . Replacing heart valves. Replacing arteries. Tissue engineered arteries. Summary and future trends. Sources of further information and advice. Acknowledgements. References. Ultra-high molecular weight polyethylene (UHMWPE UHMWPE Ultra-High Molecular Weight Polyethylene ) in joint replacement F W Shen Shen, in the Bible, place, perhaps close to Bethel, near which Samuel set up the stone Ebenezer. , University of California The University of California has a combined student body of more than 191,000 students, over 1,340,000 living alumni, and a combined systemwide and campus endowment of just over $7.3 billion (8th largest in the United States). Los Angeles, USA Introduction. The structure of UHMWPE. Fabrication of implants using UHMWPE. Implant sterilization. Crosslinking to improve implant wear properties. Future trends. Sources of further information and advice. References. Polymers in biosensors F Davis and S P J Higson, Cranfield University, UK Introduction. The development and format of biosensors. Polymer membranes in biosensors. Polymer coatings for biosensors. Conducting polymers in biosensors. Redox-active polymers in biosensors. Molecularly-imprinted polymers in biosensors. Summary and future trends. Sources of further information and advice. References. Tissue engineering using natural polymers V M Correlo, M E Gomes, K Tuzlakoglu, J M Oliveira, P B Malafaya, J F Mano ma·no n. pl. ma·nos A hand-held stone or roller for grinding corn or other grains on a metate. [Spanish, hand, mano, from Latin manus, hand; see manner.] , N M Neves and R L Reis, University of Minho, Portugal Introduction. Chitosan and starch-based polymers in tissue engineering. Production of 3D porous scaffolds by extrusion and injection moulding with a blowing agent. Producing 3D porous scaffolds using fibre bonding. Producing 3D porous scaffolds by melt based compression moulding with particulate leaching. 3D porous scaffolds produced by freeze-drying. Particle aggregation techniques to produce 3D porous scaffolds. Microwave processing of 3D polymeric scaffolds. Conclusions. References. 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