Popot Membrane Proteins in Aqueous Solutions
1. Auflage 2018
ISBN: 978-3-319-73146-9
Verlag: Springer, Berlin
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Buch, Englisch, Reihe: Biological and Medical Physics, Biomedical Engineering
708 Seiten, Gebunden, HC runder Rücken kaschiert, Format (B × H): 181 mm x 261 mm, Gewicht: 1566 g
From Detergents to Amphipols
1. Auflage 2018,
708 Seiten, Gebunden, HC runder Rücken kaschiert, Format (B × H): 181 mm x 261 mm, Gewicht: 1566 g
Reihe: Biological and Medical Physics, Biomedical Engineering
ISBN: 978-3-319-73146-9
Verlag: Springer, Berlin
Seite exportieren
- versandkostenfreie Lieferung
- Lieferfrist: bis zu 10 Tage
Important features of the book include introductory sections describing foundations as well as the state-of-the-art for each of the biophysical techniques discussed, and topical tables which organize a widely dispersed literature. Boxes and annexes throughout the book explain technical aspects, and twelve detailed experimental protocols, ranging from in vitro folding of membrane proteins to single-particle electron cryomicroscopy, have been contributed by and commented on by experienced users.
Membrane Proteins in Aqueous Solutions offers a concise, accessible introduction to membrane protein biochemistry and biophysics, as well as comprehensive coverage of the properties and uses of conventional and non-conventional surfactants. It will be useful both in basic and applied research laboratories and as a teaching aid for students, instructors, researchers, and professionals within the field.
Popot, Jean-Luc
Jean-Luc Popot, born 1948, studied biology, chemistry, and biophysics in Orléans and Orsay. In 1971, he took a permanent position with the Collège de France. In J. P. Changeux's laboratory, at the Pasteur Institute, he applied electrophysiology and biophysical and biochemical approaches to functional and structural studies of the nicotinic acetylcholine receptor. In 1982, he joined D.M. Engelman at Yale University as a visiting scientist. His work at Yale, which bore principally on refolding bacteriorhodopsin from denatured fragments and studying the refolded structure crystallographically, led the two of them to propose, in 1990, an influential model for the folding of helical membrane proteins. In 1985, he joined the laboratory of P. Joliot at the Institut de Biologie Physico-Chimique (Paris). His group carried out neutron diffraction and model building work on bacteriorhodopsin and biochemical studies on Photosystem II and cytochrome b6 f. In 1996, he became Research Director at the Centre National de la Recherche Scientifique and created his own laboratory, where the X ray structure of the b6 f was solved in 2003. In parallel, he pursued the development of sequence analysis approaches and, in collaboration with chemists and physical chemists, designed and validated non-conventional surfactants aimed at facilitating membrane protein solution studies, most notably amphipathic polymers ('amphipols') and fluorinated surfactants. He retired in 2013 and, along with his wife, splits his time between restoring an old house in Languedoc, reading, writing, hiking, photographing, cooking, and enjoying the company of kith and kin.
Membrane proteins: functions, structures, environments.- Taking membrane proteins out of their natural environment.- Alternatives to detergents for handling membrane proteins in aqueous solutions.- Chemical structure and physical-chemical properties of amphipols.- Formation and properties of membrane protein/amphipol complexes.- Amphipol-assisted folding of membrane proteins to their native state.- Amphipol-assisted cell-free expression of membrane proteins.- Amphipols and NMR.- Amphipols and crystallography.- Amphipols and electron microscopy.- Amphipols and radiation scattering.- Amphipol-assisted immobilization of membrane proteins onto solid supports for ligand-binding studies.- Amphipols and proteomics.- Amphipols as vectors for the delivery of membrane proteins and transmembrane peptides.- Perspectives.- Annex: protocols.- Trapping membrane proteins with amphipols.- Amphipol-assisted folding of membrane proteins.- Amphipol-assisted cell-free expression of membrane proteins.- Preparing membrane protein/amphipol complexes for solution NMR.- Preparing membrane protein/amphipol complexes for electron microscopy.- Amphipol-assisted transfer of membrane proteins to lipid phases for crystallization.- Preparing membrane protein/amphipol complexes for radiation scattering measurements.- Using tagged amphipols to immobilize membrane proteins onto solid supports.- Preparing membrane protein/amphipol complexes for mass spectrometry.- Using membrane protein/amphipol complexes for vaccination.- Glossary.- Index.- Literature cited.
Research
Important features of the book include introductory sections describing foundations as well as the state-of-the-art for each of the biophysical techniques discussed, and topical tables which organize a widely dispersed literature. Boxes and annexes throughout the book explain technical aspects, and twelve detailed experimental protocols, ranging from in vitro folding of membrane proteins to single-particle electron cryomicroscopy, have been contributed by and commented on by experienced users.
Membrane Proteins in Aqueous Solutions offers a concise, accessible introduction to membrane protein biochemistry and biophysics, as well as comprehensive coverage of the properties and uses of conventional and non-conventional surfactants. It will be useful both in basic and applied research laboratories and as a teaching aid for students, instructors, researchers, and professionals within the field.
Popot, Jean-Luc
Jean-Luc Popot, born 1948, studied biology, chemistry, and biophysics in Orléans and Orsay. In 1971, he took a permanent position with the Collège de France. In J. P. Changeux's laboratory, at the Pasteur Institute, he applied electrophysiology and biophysical and biochemical approaches to functional and structural studies of the nicotinic acetylcholine receptor. In 1982, he joined D.M. Engelman at Yale University as a visiting scientist. His work at Yale, which bore principally on refolding bacteriorhodopsin from denatured fragments and studying the refolded structure crystallographically, led the two of them to propose, in 1990, an influential model for the folding of helical membrane proteins. In 1985, he joined the laboratory of P. Joliot at the Institut de Biologie Physico-Chimique (Paris). His group carried out neutron diffraction and model building work on bacteriorhodopsin and biochemical studies on Photosystem II and cytochrome b6 f. In 1996, he became Research Director at the Centre National de la Recherche Scientifique and created his own laboratory, where the X ray structure of the b6 f was solved in 2003. In parallel, he pursued the development of sequence analysis approaches and, in collaboration with chemists and physical chemists, designed and validated non-conventional surfactants aimed at facilitating membrane protein solution studies, most notably amphipathic polymers ('amphipols') and fluorinated surfactants. He retired in 2013 and, along with his wife, splits his time between restoring an old house in Languedoc, reading, writing, hiking, photographing, cooking, and enjoying the company of kith and kin.
Membrane proteins: functions, structures, environments.- Taking membrane proteins out of their natural environment.- Alternatives to detergents for handling membrane proteins in aqueous solutions.- Chemical structure and physical-chemical properties of amphipols.- Formation and properties of membrane protein/amphipol complexes.- Amphipol-assisted folding of membrane proteins to their native state.- Amphipol-assisted cell-free expression of membrane proteins.- Amphipols and NMR.- Amphipols and crystallography.- Amphipols and electron microscopy.- Amphipols and radiation scattering.- Amphipol-assisted immobilization of membrane proteins onto solid supports for ligand-binding studies.- Amphipols and proteomics.- Amphipols as vectors for the delivery of membrane proteins and transmembrane peptides.- Perspectives.- Annex: protocols.- Trapping membrane proteins with amphipols.- Amphipol-assisted folding of membrane proteins.- Amphipol-assisted cell-free expression of membrane proteins.- Preparing membrane protein/amphipol complexes for solution NMR.- Preparing membrane protein/amphipol complexes for electron microscopy.- Amphipol-assisted transfer of membrane proteins to lipid phases for crystallization.- Preparing membrane protein/amphipol complexes for radiation scattering measurements.- Using tagged amphipols to immobilize membrane proteins onto solid supports.- Preparing membrane protein/amphipol complexes for mass spectrometry.- Using membrane protein/amphipol complexes for vaccination.- Glossary.- Index.- Literature cited.
Research
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