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  • Book
    edited by Luc Ponchon.
    Contents:
    Method to predict the 3D structure of an RNA scaffold / Xiaojun Xu and Shi-Jie Chen
    Post-crystallization improvement of RNA crystal diffraction quality / Jinwei Zhang and Adrian R. Ferré-D'Amaré
    Expression and purification of RNA-protein complexes in Escherichia coli / Margueritte El Khouri and others
    Production of homogeneous recombinant RNA using a tRNA scaffold and hammerhead ribozymes / Frank H.T. Nelissen, Hans A. Heus, and Sybren S. Wijmenga
    In vivo production of small recombinant RNAs embedded in a 5S rRNA-derived protective scaffold / Victor G. Stepanov and George E. Fox
    Detection of RNA-protein interactions using tethered RNA affinity capture / Hidekazu Iioka and Ian G. Macara
    Universal method for labeling native RNA in live bacterial cells / Irina Smolina and Natalia Broude
    Live cell imaging using riboswitch-spinach tRNA fusions as metabolite-sensing fluorescent biosensors / Colleen A. Kellenberger, Zachary F. Hallberg, and Ming C. Hammond
    RNA scaffold : designed to co-localize enzymes / ZJU_China Team (iGEM 2012) and Ming Chen
    Artificial ligase ribozymes isolated by a "Design and Selection" strategy / Shigeyoshi Matsumura and Yoshiya Ikawa
    Engineering aptazyme switches for conditional gene expression in mammalian cells utilizing an in vivo screening approach / Charlotte Rehm, Benedikt Klauser, and Jörg S. Hartig
    Aptazyme-based riboswitches and logic gates in mammalian cells / Yoko Nomura and Yohei Yokobayashi
    Design and characterization of topological small RNAs / Jack Hassall and others
    Folding RNA-protein complex into designed nanostructures / Tomonori Shibata and others
    Simple method for constructing RNA triangle, square, pentagon by tuning interior RNA 3WJ angle from 60° to 90° or 108° / Emil F. Khisamutdinov and others
    RNA-mediated CdS-based nanostructures / Vinit Kumar and Anil Kumar
    Effective method for specific gene silencing in Escherichia coli using artificial small RNA / Geunu Bak and others.
    Digital Access Springer 2015
  • Book
    herausgegeben von Gisela Mohr, Martina Rummel, Dorothee Rückert.
    Print 1982
  • Article
    Busby WH, Travis JC.
    Comp Biochem Physiol B. 1978;60(4):389-96.
    1. Artiodactyla haptoglobins (Hps), goat, sheep and cattle (family Bovidae), and pig (family Suidae) were structurally characterized. 2. The polymeric Hp systems of goat, sheep and cattle were similar to the polymeric human Hp system, while the monomeric system of pig was more comparable to the monomeric human form. 3. All members of the Artiodactyla (family Bovidae) examined exhibited a large polypeptide subunit, comparable to that of the beta subunit of human Hp. 4. In addition, a small subunit, similar in molecular weight to the human alpha 2 subunit, was demonstrated. Pig Hp was shown to have two subunits, one slightly larger than the human beta subunit and the other intermediate in size to the human alpha 1 and alpha 2 subunits. 5. Immunoelectrophoretic and immunodiffusion studies indicated complete cross reactivity among the polymeric Artiodactyla Hps. 6. The polymeric Hps do not, however, cross react with the monomeric pig Hp.
    Digital Access Access Options