Works matching Adenosine triphosphate (ATP)

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    Adenosine triphosphate-guided pulmonary vein isolation for atrial fibrillation: the UNmasking Dormant Electrical Reconduction by Adenosine TriPhosphate (UNDER-ATP) trial.

    Published in:
    European Heart Journal, 2015, v. 36, n. 46, p. 3276, doi. 10.1093/eurheartj/ehv457
    By:
    • Atsushi Kobori;
    • Satoshi Shizuta;
    • Koichi Inoue;
    • Kazuaki Kaitani;
    • Takeshi Morimoto;
    • Yuko Nakazawa;
    • Tomoya Ozawa;
    • Toshiya Kurotobi;
    • Itsuro Morishima;
    • Fumiharu Miura;
    • TetsuyaWatanabe;
    • Masaharu Masuda;
    • Masaki Naito;
    • Hajime Fujimoto;
    • Taku Nishida;
    • Yoshio Furukawa;
    • Takeshi Shirayama;
    • Mariko Tanaka;
    • Katsunori Okajima;
    • Takenori Yao
    Publication type:
    Article
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    Channel Active Mammalian Porin, Purified from Crude Membrane Fractions of Human B Lymphocytes and Bovine Skeletal Muscle, Reversibly Binds Adenosine Triphosphate (ATP).

    Published in:
    Biological Chemistry, 1994, v. 375, n. 8, p. 513
    By:
    • Flörke, Harald;
    • Thinnes, Friedrich P.;
    • Winkelbach, Heidi;
    • Stadtmüller, Ulrike;
    • Paetzold, Gabriele;
    • Morys-Wortmann, Corinna;
    • Hesse, Dörte;
    • Sternbach, Hans;
    • Zimmermann, Bodo;
    • Kaufmann-Kode, Petra;
    • Heiden, Martin;
    • Karabinos, Anton;
    • Reymann, Susanne;
    • Lalk, Volker E.;
    • Hilschmann, Norbert
    Publication type:
    Article
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    Strategies to Restore Adenosine Triphosphate (ATP) Level After More than 20 Hours of Cold Ischemia Time in Human Marginal Kidney Grafts.

    Published in:
    Annals of Transplantation, 2018, v. 23, p. 34, doi. 10.12659/AOT.905406
    By:
    • Ravaioli, Matteo;
    • Baldassare, Maurizio;
    • Vasuri, Francesco;
    • Pasquinelli, Gianandrea;
    • Laggetta, Maristella;
    • Valente, Sabrina;
    • De Pace, Vanessa;
    • Neri, Flavia;
    • Siniscalchi, Antonio;
    • Zanfi, Chiara;
    • Bertuzzo, Valentina R.;
    • Caraceni, Paolo;
    • Trerè, Davide;
    • Longobardi, Pasquale;
    • Pinna, Antonio D.
    Publication type:
    Article
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    F<sub>o</sub>F<sub>1</sub> ATPase (also known as ATP synthase) exists in mitochondrial inner membranes and bacterial plasma membranes to synthesize ATP (adenosine triphosphate) by using electrochemical gradient of protons (H<sup>+</sup>) between inside and outside of the membranes. F<sub>o</sub> is integrated in the membranes and thought to have a rotor ring that rotates horizontally. F<sub>1</sub> has a dome-like structure comprised of three α and three β subunits that are alternately arranged, which is anchored to the membranes to prevent rotation. Shaft-like γ subunit connects the center of the rotor ring of F<sub>o</sub> and F<sub>1</sub>. As protons flow down the gradient across the membranes through F<sub>o</sub>, the rotor ring of F<sub>o</sub> and γ rotate, and the spin force of γ against αβ complex is used to synthesize ATP molecules. In this drawing, a waterwheel (F<sub>o</sub>) is rotated by the gradient of water (represents proton gradient), and series of three coins (which represent ATP) are generated from the 'apparatus' (αβ of F<sub>1</sub>), which is made from six boards being attached to the front side of the waterwheel. A man in the back takes a role to transport protons to the outside of membranes to produce proton gradient. Designed by TRAIS Co., Ltd. (Kobe, Japan)

    Published in:
    Genes to Cells, 2014, v. 19, n. 9, p. i, doi. 10.1111/gtc.12177
    Publication type:
    Article
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