Affinity biosensors : techniques and protocols / edited by Kim R. Rogers and Ashok Mulchandani.
Contributor(s): Rogers, Kim R
| Mulchandani, Ashok
.
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Item type | Current library | Call number | Copy number | Status | Date due | Barcode | Item holds |
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General Lending | MTU Bishopstown Library Lending | 612.015028 (Browse shelf(Opens below)) | 1 | Available | 00074924 |
Enhanced descriptions from Syndetics:
The frequency of reports concemmg the interface of biological reco- tion elements to signal transduction technologies has risen dramatically over the last decade. Because any one of a wide variety of biological recognition elements (e. g. , antibodies, receptors, DNA, microorganisms, or enzymes) can theoretically be interfaced with any one of a wide variety of signal transducers (e. g. , optical, electrochemical, thermal, or acoustic), the potential range of devices and techniques can be bewildering. The purpose of this volume and the previous volume in this series is to provide a basic reference and startmg point for investigators in academics, mdustry, and government to begin or expand their biosensors research. This volume, Methods in Biotechnology vol. 7: Affinity Biosensors: Techniques and Protocols, describes a variety of classical and emerging transduction technologies that have been interfaced to bioaffinity elements (e. g. , antibodies and receptors). Some of the reasons for the expansion in the use of affinity-based biosensors include both advances in signal transduction technologies (e. g. , fiber optics, microelectromcs, and microfabrication) and the availability of bioafflmty elements. More specifically, with respect to biological recognttion elements, commercially and noncommercially produced antibodies directed toward a variety of analytes have become widely available. In addition, te- niques for the purification and stabilization of receptors have also significantly improved. As a result of these recent advances in the field, biosensors research and development projects are being pursued by mvestigators from a wide range of disciplines.
Includes bibliographical references and index.
Part I Affinity biosensors: Principles of affinity-based biosensors / Kim R. Rogers -- Immunobiosensors based on thermsitors / Kumaran Ramanathan, Masoud Khayyami and Bengt Danielsson -- Affinity biosensing based on surface plasmon resonance detection / Bo Liedberg and Knut Johansen -- Immunosensors based on piezoelectric crystal device / Marco Mascini, Maria Minunni, George G. Guibault and Robert Carter -- Immunobiosensors based on evanescent wave excitation / Randy M. Wadkins and Frances S. Ligler -- A galactose-specific affinity hollow fiber sensor based on fluorescence resonance energy transfer / Ralph Ballerstadt and Jerome S. Schultz -- Fiberoptic immunosensors with continuous analyte response / J. Rex Astles, W. Greg Miller, C. Michael Hanbury and F. Philip Anderson -- Immunobiosensors based on grating couplers / Ursula Bilitewski, Frank Bier and Albrecht Brandenberg -- Receptor biosensors based on optical detection / Kim R. Rogers and Mohyee E. Eldefrawi -- Part II Biosensor-related techniques: Immunobiosensors based on ion-selective electrodes / Hanna Radecka and Yoshio Umezawa -- Biosensors based on DNA interacalation using light polarization / John J. Horvath -- ISFET affinity sensor / Geert A. J. Besselink and Piet Bergveld -- Liposome-based immunomigration assays / Matthew A. Roberts and Richard A. Durst -- Isolated receptor biosensors based on bilayer lipid membranes / Masao Sugawara, Ayumi Hirano and Yoshio Umezawa -- Eukaryotic cell biosensor: the cytosensor microphysiometer / Amira T. Eldefarwi, Cheng J. Cao, Vania I. Cortes, Robert J. Mioduszewski, Darrel E. Menking and James J. Valdes.
CIT Module BIOT 8004 - Core reading.