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Strasbourg structural models

Fig. 2. Secondary structure of the E. coli 16 S RNA. Model Berlin according to Glotz and Brimacombe (1980) California according to Woese et al. (1980) Strasbourg according to Stiegler et al. (1981). For details see Brimacombe et al. (1983). Here and in Figs. 3 and 13, section a of each structure includes the 5 end of the molecule, which is marked b includes the middle portion and c includes the marked 3 end. Arrows indicate connections between a, b, and c. Reproduced with permission from Brimacombe et al. (1983). Fig. 2. Secondary structure of the E. coli 16 S RNA. Model Berlin according to Glotz and Brimacombe (1980) California according to Woese et al. (1980) Strasbourg according to Stiegler et al. (1981). For details see Brimacombe et al. (1983). Here and in Figs. 3 and 13, section a of each structure includes the 5 end of the molecule, which is marked b includes the middle portion and c includes the marked 3 end. Arrows indicate connections between a, b, and c. Reproduced with permission from Brimacombe et al. (1983).
Camille Georges Wermuth, Trends in QSAR and Molecular Modeling 92. Proceedings of the 9th European Symposium on Structure-Activity Relationships QSAR and Molecular Modeling, September 7-11, 1992, Strasbourg, France, ESCOM, Leiden,... [Pg.348]

It is not always easy to characterize the electronic and crystallographic structures of very small aggregates. Their size (a few nanometers) is due to the fact that as many atoms as possible must be active and therefore must be at the surface. Moreover, the analysis has to be done in situ, under the true reaction conditions, in order to build a physical model for the role of the catalyst. Then, many experimental techniques have been used, including most recently electron microscopy and X-ray absorption. We focus our attention here on the EXAFS (Extended X-ray Absorption Fine Structure) technique and its possibilities for the study of supported metal catalysts. Most of the examples come from a collaboration between LURE and some public CNRS laboratories (Strasbourg, Meudon) and a private one (IFF — Rueil Malmaison). We begin with some generalities about the technique and the type of catalysts studied, then move to several examples of application. [Pg.69]

Polymeropoulos, E. E. (1993) QSAR analysis of time- and dose-dependent in vivo drag effects using artificial neural networks. Trends QSAR Mol. Modell. 92, Proc. Eur. Symp. Structure-Activity Relationships QSAR and Molecular Modeling 9th, pp. 546-549., Strasbourg, France. [Pg.361]

Teinimi N, Burr A and Billon N (2006) Damaging processes in polypropylene. Experimental and modelling, in Book of Abstracts. Euromech Colloquium 487. Structure Sensitive Mechanics of Polymer Materials Physical and Mechanical Aspects. Strasbourg 10-13.10.2006 (Eds. Reinond Y and Patlazhan S) Strasbourg, pp. 67-68. [Pg.68]


See other pages where Strasbourg structural models is mentioned: [Pg.48]    [Pg.1246]    [Pg.333]    [Pg.35]    [Pg.10]    [Pg.230]   
See also in sourсe #XX -- [ Pg.132 , Pg.242 ]




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