Nucleotide-gated KATP channels integrated with creatine and adenylate kinases: Amplification, tuning and sensing of energetic signals in the compartmentalized cellular environment

[1]  A. Kuznetsov,et al.  Functional coupling of creatine kinases in muscles: Species and tissue specificity , 1998, Molecular and Cellular Biochemistry.

[2]  J. Weiss,et al.  Metabolic regulation of cardiac ATP-sensitive K+ channels , 1993, Cardiovascular Drugs and Therapy.

[3]  A. Terzic,et al.  Kir6.2 is required for adaptation to stress , 2002, Proceedings of the National Academy of Sciences of the United States of America.

[4]  Carmen Drahl,et al.  Adenylate kinase AK1 knockout heart: energetics and functional performance under ischemia-reperfusion. , 2002, American journal of physiology. Heart and circulatory physiology.

[5]  A. Terzic,et al.  Energetic communication between mitochondria and nucleus directed by catalyzed phosphotransfer , 2002, Proceedings of the National Academy of Sciences of the United States of America.

[6]  Andre Terzic,et al.  Coupling of Cell Energetics with Membrane Metabolic Sensing , 2002, The Journal of Biological Chemistry.

[7]  Philippe Mateo,et al.  31P NMR Detection of Subcellular Creatine Kinase Fluxes in the Perfused Rat Heart , 2002, The Journal of Biological Chemistry.

[8]  A. Terzic,et al.  Tandem Function of Nucleotide Binding Domains Confers Competence to Sulfonylurea Receptor in Gating ATP-sensitive K+ Channels* , 2002, The Journal of Biological Chemistry.

[9]  C. Botting,et al.  Creatine kinase is physically associated with the cardiac ATP‐sensitive k+ channel in vivo , 2002, FASEB journal : official publication of the Federation of American Societies for Experimental Biology.

[10]  A. Terzic,et al.  Cellular Energetics in the Preconditioned State , 2001, The Journal of Biological Chemistry.

[11]  A. Terzic,et al.  Signaling in Channel/Enzyme Multimers ATPase Transitions in SUR Module Gate ATP-Sensitive K+ Conductance , 2001, Neuron.

[12]  Ave Minajeva,et al.  Energetic Crosstalk Between Organelles: Architectural Integration of Energy Production and Utilization , 2001, Circulation research.

[13]  A. Terzic,et al.  Adenylate kinase phosphotransfer communicates cellular energetic signals to ATP-sensitive potassium channels , 2001, Proceedings of the National Academy of Sciences of the United States of America.

[14]  E. Fleck,et al.  Intracellular energetic units in red muscle cells. , 2001, The Biochemical journal.

[15]  S. Seino,et al.  Protective Role of ATP-Sensitive Potassium Channels in Hypoxia-Induced Generalized Seizure , 2001, Science.

[16]  E. Marbán,et al.  ATP consumption by uncoupled mitochondria activates sarcolemmal K(ATP) channels in cardiac myocytes. , 2001, American journal of physiology. Heart and circulatory physiology.

[17]  Edwin Janssen,et al.  Compromised Energetics in the Adenylate Kinase AK1Gene Knockout Heart under Metabolic Stress* , 2000, The Journal of Biological Chemistry.

[18]  Arend Heerschap,et al.  Adenylate kinase 1 gene deletion disrupts muscle energetic economy despite metabolic rearrangement , 2000, The EMBO journal.

[19]  A. Terzic,et al.  ATPase activity of the sulfonylurea receptor: a catalytic function for the KATP channel complex , 2000, FASEB journal : official publication of the Federation of American Societies for Experimental Biology.

[20]  T. Amachi,et al.  Different Binding Properties and Affinities for ATP and ADP among Sulfonylurea Receptor Subtypes, SUR1, SUR2A, and SUR2B* , 2000, The Journal of Biological Chemistry.

[21]  Thomas C. Rich,et al.  Cyclic Nucleotide–Gated Channels Colocalize with Adenylyl Cyclase in Regions of Restricted Camp Diffusion , 2000, The Journal of general physiology.

[22]  A. Terzic,et al.  Failing energetics in failing hearts , 2000, Current cardiology reports.

[23]  H. Gögelein,et al.  Molecular Basis, Pharmacology and Physiological Role of Cardiac KATP Channels , 1999, Cellular Physiology and Biochemistry.

[24]  A. Terzic,et al.  Adenylate kinase-catalyzed phosphotransfer in the myocardium : increased contribution in heart failure. , 1999, Circulation research.

[25]  A. Terzic,et al.  Physical association between recombinant cardiac ATP-sensitive K+ channel subunits Kir6.2 and SUR2A. , 1999, Journal of molecular and cellular cardiology.

[26]  A. Kabakov.  Activation of KATP channels by Na/K pump in isolated cardiac myocytes and giant membrane patches. , 1998, Biophysical journal.

[27]  P. Drain,et al.  KATP channel inhibition by ATP requires distinct functional domains of the cytoplasmic C terminus of the pore-forming subunit. , 1998, Proceedings of the National Academy of Sciences of the United States of America.

[28]  A. Terzic,et al.  Recombinant cardiac ATP-sensitive K+ channel subunits confer resistance to chemical hypoxia-reoxygenation injury. , 1998, Circulation.

[29]  Frances M. Ashcroft,et al.  Correlating structure and function in ATP-sensitive K+ channels , 1998, Trends in Neurosciences.

[30]  A. Terzic,et al.  Phosphotransfer reactions in the regulation of ATP‐sensitive K+ channels , 1998, FASEB journal : official publication of the Federation of American Societies for Experimental Biology.

[31]  M. Carlson,et al.  The AMP-activated/SNF1 protein kinase subfamily: metabolic sensors of the eukaryotic cell? , 1998, Annual review of biochemistry.

[32]  C. Nichols,et al.  Regulation of KATP Channel Activity by Diazoxide and MgADP , 1997, The Journal of general physiology.

[33]  V. Saks,et al.  Compartmentalized energy transfer in cardiomyocytes: use of mathematical modeling for analysis of in vivo regulation of respiration. , 1997, Biophysical journal.

[34]  F. Ashcroft,et al.  Truncation of Kir6.2 produces ATP-sensitive K+ channels in the absence of the sulphonylurea receptor , 1997, Nature.

[35]  K. Kunjilwar,et al.  Association and Stoichiometry of KATP Channel Subunits , 1997, Neuron.

[36]  C. Nichols,et al.  Regulation of KATP Channel Activity by Diazoxide and MgADP , 1997, The Journal of general physiology.

[37]  A. Terzic,et al.  Reversal of the ATP-liganded State of ATP-sensitive K+ Channels by Adenylate Kinase Activity* , 1996, The Journal of Biological Chemistry.

[38]  V A Saks,et al.  Is there the creatine kinase equilibrium in working heart cells? , 1996, Biochemical and biophysical research communications.

[39]  W. Jencks,et al.  Phosphorylation of the sodium-potassium adenosinetriphosphatase with adenosine triphosphate and sodium ion that requires subconformations in addition to principal E1 and E2 conformations of the enzyme. , 1996, Biochemistry.

[40]  L. Olson,et al.  Suppression of Adenylate Kinase Catalyzed Phosphotransfer Precedes and Is Associated with Glucose-induced Insulin Secretion in Intact HIT-T15 Cells* , 1996, The Journal of Biological Chemistry.

[41]  M. Permutt,et al.  Adenosine Diphosphate as an Intracellular Regulator of Insulin Secretion , 1996, Science.

[42]  P. Dzeja,et al.  Suppression of Creatine Kinase-catalyzed Phosphotransfer Results in Increased Phosphoryl Transfer by Adenylate Kinase in Intact Skeletal Muscle* , 1996, The Journal of Biological Chemistry.

[43]  J. Bryan,et al.  A Family of Sulfonylurea Receptors Determines the Pharmacological Properties of ATP-Sensitive K+ Channels , 1996, Neuron.

[44]  J. Inazawa,et al.  Reconstitution of IKATP: An Inward Rectifier Subunit Plus the Sulfonylurea Receptor , 1995, Science.

[45]  T. Reffelmann,et al.  Hypoxia-induced activation of KATP channels limits energy depletion in the guinea pig heart. , 1995, The American journal of physiology.

[46]  E. Marbán,et al.  Oscillations of membrane current and excitability driven by metabolic oscillations in heart cells. , 1994, Science.

[47]  S. Lamp,et al.  ATP‐sensitive K+ channels and cellular K+ loss in hypoxic and ischaemic mammalian ventricle. , 1992, The Journal of physiology.

[48]  W. Lederer,et al.  Sodium-calcium exchange in excitable cells: fuzzy space. , 1990, Science.

[49]  W. Lederer,et al.  The regulation of ATP‐sensitive K+ channel activity in intact and permeabilized rat ventricular myocytes. , 1990, The Journal of physiology.

[50]  W. Lederer,et al.  Nucleotide modulation of the activity of rat heart ATP‐sensitive K+ channels in isolated membrane patches. , 1989, The Journal of physiology.

[51]  G. Kaczorowski,et al.  The role of sodium-calcium exchange in excitable cells. , 1988, Biochemical Society transactions.

[52]  J. Weiss,et al.  Glycolysis preferentially inhibits ATP-sensitive K+ channels in isolated guinea pig cardiac myocytes. , 1987, Science.

[53]  J. Ingwall,et al.  Rate equation for creatine kinase predicts the in vivo reaction velocity: 31P NMR surface coil studies in brain, heart, and skeletal muscle of the living rat. , 1987, Biochemistry.

[54]  W. E. Jacobus.  Theoretical support for the heart phosphocreatine energy transport shuttle based on the intracellular diffusion limited mobility of ADP. , 1985, Biochemical and biophysical research communications.

[55]  M. Hori,et al.  Augmented energy consumption during early systole as a mechanism of cyclical changes in high-energy phosphates in myocardium assessed by phosphorus nuclear magnetic resonance. , 1985, Japanese circulation journal.

[56]  V. Saks,et al.  Energy metabolism and ion fluxes across cardiac membranes. , 1980, Advances in myocardiology.

[57]  R. Veech,et al.  Effects of pH and free Mg2+ on the Keq of the creatine kinase reaction and other phosphate hydrolyses and phosphate transfer reactions. , 1979, The Journal of biological chemistry.