Inicio > Matemáticas y ciencia > Biologia, ciencias de la vida > Bioquímica > Modelling of Biomolecular Structures and Mechanisms
Modelling of Biomolecular Structures and Mechanisms

Modelling of Biomolecular Structures and Mechanisms

 

122,06 €
IVA incluido
Consulta disponibilidad
Editorial:
Springer Nature B.V.
Año de edición:
1995
Materia
Bioquímica
ISBN:
9780792331025

Selecciona una librería:

  • Librería Samer Atenea
  • Librería Aciertas (Toledo)
  • Kálamo Books
  • Librería Perelló (Valencia)
  • Librería Elías (Asturias)
  • Donde los libros
  • Librería Kolima (Madrid)
  • Librería Proteo (Málaga)

Preface. Modelling of Transmembrane alpha-Helix Bundles; P. Tufféry, C. Etchebest, R. Lavery. Binding Sites of Acetylcholine in the Aromatic Gorge Leading to the Active Site of Acetylcholinesterase; A. Pullman. Binding of Cations and Protons in the Active Site of Acetylcholinesterase; S.T. Wlodek, J. Antosiewicz, J. McCammon, M.K. Gilson. Structure Modeling of the Acetylcholine Receptor Channel and Related Ligand Gated Channels; E. von Kitzing. Simulation of a Fluid Phase Lipid Bilayer Membrane: Incorporation of the Surface Tension into System Boundary Conditions; S.-W. Chiu, M. Clark, V. Balaji, S. Subramaniam, H.L. Scott, E. Jakobsson. Protein Dynamics: From the Native to the Unfolded State and Back Again; M. Karplus, A. Caflisch, A. Sali, E. Shakhnovich. Essential Degrees of Freedom of Proteins; A. Amadei, A.B.M. Linssen, B.L. de Groot, H.J.C. Berendsen. De novo Simulations of the Folding of GCN4 and its Mutants; J. Skolnick, M. Vieth, A. Kolinski, C.L. Brooks, III. A Model of HIV-I Reverse Transcriptase: Possible Mechanisms for AZT Resistance; R.F. Setlik, M. Shibata, R.L. Ornstein, R. Rein. Fold Recognition; M.J. Sippl, S. Weitckus, H. Flöckner. Modelling the Interactions of Protein Side-Chains; J.B.O. Mitchell, J.M. Thornton, S.L. Price. Dynamic Domains: a Simple Method of Analysing Structural Movements in Proteins; K. Zakrzewska. Applications of Empirical Amino Acid Potential Functions; R.L. Jernigan, L. Young, D.G. Covell, S. Miyazawa. Molecular Dynamics Study of the Dissociation of an Antigen--Antibody Complex in Solution; J. Durup, F. Alary. Calculation of Atom-Centered Partial Charges for Heme; J.I. Manchester, M.D. Paulsen, R.L. Ornstein. Molecular Dynamics Simulations of Phenylimidazole Inhibitor Complexes ofCytochrome P450cam; D.L. Harris, Y.-T. Chang, G.H. Loew. The Effect of Hydrostatic Pressure on Protein Crystals Investigated by Molecular Simulation; D.M. York, T.A. Darden, L.G. Pedersen. Twists and Turns in DNA: Predicting Base Sequence Effects on the Conformation of the Double Helix; R. Lavery. Rotational Motions of Bases in DNA; F. Briki, J. Ramstein, R. Lavery, D. Genest. MOIL-View -- a Program for Visualization of Structure and Dynamics of Biomolecules and STO -- a Program for Computing Stochastic Paths; C. Simmerling, R. Elber, J. Zhang. Rational Design of Switched Triple Helix-Forming Oligonucleotides: Extension of Sequences for Triple Helix Formation; J.-S. Sun. Construction of a DNA Four-Way Junction: Design and NMR Spectroscopy; C. Altona, J.A. Pikkemaat. On the Role of Single-Stranded Adenines in RNA-RNA Recognition; E. Westhof. A Computer Simulation Study of the Relation between Lipid and Probe Behaviour in Bilayer Systems; H. Eviatar, U.A. van der Heide, Y.K. Levine. Molecular Modeling Studies on the Ribosome; S.C. Harvey, A. Malhotra, R.K.-Z. Tan. The Molecular Mechanics Program DUPLEX: Computing Structures of Carcinogen Modified DNA by Surveying the Potential Energy Surface; B.E. Hingerty, S. Broyde. Simulations of Molecular Mechanisms in Radiation Damage to DNA; R. Osman, C.F. Wong, K. Miaskiewicz. Molecular Similarity and Dissimilarity; W.G. Richards. Biomolecules at Phase Boundaries; P. Ahlström, J. Lausmaa, P. Löfgren, H.J.C. Berendsen. Continuum-Model Studies of Redox Reactions, Complex Formation, and Electron Transfer: the Paradigm of Cytochrome c and Cytochrome c Peroxidase; H.-X. Zhou. The Relationship between Physical Property and Function of Highly Activated Mutants of

Artículos relacionados

  • Implementation of Automated Urinary Sediment Analyzer UF1000
    Adriana Manuel
    Comparative work of Urinary Sediment between data obtained in automated platform, Roche UF 1000 flow cytometer versus the gold standard optical microscopy method. This work was carried out with raw data from known patients whose expected results allowed us to define the non-pathological sample parameters obtained in automated equipment. The experience was enriching, working wit...
    Disponible

    48,30 €

  • Bioprocess Technology
    I Arul Pandi / P T Kalaichelvan
    Dive into the dynamic world of Bioprocess Technology, where biology, engineering, materials science, and clinical procedures seamlessly converge to create a multidisciplinary marvel. In an era where innovation knows no bounds, Bioprocessing stands at the forefront, transcending boundaries to shape diverse facets of the biological landscape.This illuminating book is meticulously...
    Disponible

    45,13 €

  • Produção De Membrana Barreira Para Regeneração Óssea Guiada Com Zeína
    Cristiane Michele Bonadio De Oliveira
    O Presente Estudo Desenvolveu Uma Membrana Com Proteína De Origem Vegetal Conhecida Por Zeína, Com Possibilidades Biodegradáveis Para Regeneração Óssea Guiada (Rog), Sendo Suas Particularidades Discutidas Ao Longo Do Trabalho. Para Melhor Entendimento A Respeito Do Tema, Serão Discutidos Alguns Conceitos E Definições Acerca Da Proteína E Da Rog. 10 ...
    Disponible

    17,16 €

  • Hydrolysis of cashew bagasse to obtain bioethanol
    João Paulo Dantas de Carvalho
    Recently, the global demand for fuel ethanol has been expanding very rapidly, and almost all fuel ethanol is produced by fermenting sucrose in Brazil or corn glucose in the United States, but these raw materials will not be enough to satisfy international demand. Agro-industrial lignocellulosic residues, such as cashew bagasse, sugarcane bagasse, soybean hulls, etc., are abunda...
    Disponible

    54,32 €

  • Hydrolyse de la bagasse de cajou pour obtenir du bioéthanol
    João Paulo Dantas de Carvalho
    Récemment, la demande mondiale d’éthanol-carburant a augmenté très rapidement, et presque tout l’éthanol-carburant est produit par fermentation de saccharose au Brésil ou de glucose de maïs aux États-Unis, mais ces matières premières ne suffiront pas à satisfaire la demande internationale. Les résidus lignocellulosiques agro-industriels, tels que la bagasse de cajou, la bagasse...
    Disponible

    54,38 €

  • Hydrolyse von Cashew-Bagasse zur Gewinnung von Bioethanol
    João Paulo Dantas de Carvalho
    In letzter Zeit ist die weltweite Nachfrage nach Ethanol-Kraftstoff sehr schnell gestiegen, und fast der gesamte Ethanol-Kraftstoff wird durch die Fermentierung von Saccharose in Brasilien oder Maisglukose in den Vereinigten Staaten hergestellt, aber diese Rohstoffe reichen nicht aus, um die internationale Nachfrage zu decken. Agroindustrielle lignozellulosehaltige Rückstände w...
    Disponible

    54,38 €