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Human erythrocyte glucose sugar transport was examined in resealed red cell ghosts under equilibrium exchange conditions (sugar intracellular = sugar extracellular , where brackets indicate concentration). Exchange 3- O -methylglucose (3MG) import and export are monophasic in the absence of cytoplasmic ATP but are biphasic when ATP is present. Biphasic exchange is observed as the rapid filling of a large compartment (66% cell volume) followed by the slow filling of the remaining cytoplasmic space. Biphasic exchange at 20 mM 3MG eliminates the possibility that the rapid exchange phase represents ATP-dependent 3MG binding to the glucose transport protein (GLUT1; cellular GLUT1 of ≤20 µM). Immunofluorescence-activated cell sorting analysis shows that biphasic exchange does not result from heterogeneity in cell size or GLUT1 content. Nucleoside transporter-mediated uridine exchange proceeds as rapidly as 3MG exchange but is monoexponential regardless of cytoplasmic ATP. This eliminates cellular heterogeneity or an ATP-dependent, nonspecific intracellular diffusion barrier as causes of biphasic exchange. Red cell ghost 3MG and uridine equilibrium volumes (130 fl) are unaffected by ATP. GLUT1 intrinsic activity is unchanged during rapid and slow phases of 3MG exchange. Two models for biphasic sugar transport are presented in which 3MG must overcome a sugar-specific, physical (diffusional), or chemical (isomerization) barrier to equilibrate with cell water. Partial transport inhibition with the use of cytochalasin B or maltose depresses both rapid and slow phases of transport, thereby eliminating the physical barrier hypothesis. We propose that biphasic 3MG transport results from ATP-dependent, differential transport of 3MG anomers in which V max /apparent K m for -3MG exchange transport is 19-fold greater than V max /apparent K m for α-3MG transport. carrier-mediated transport; transport kinetics; transport regulation Address for reprint requests and other correspondence: A. Carruthers, Dept. of Biochemistry and Molecular Pharmacology, Univ. of Massachusetts Medical School, 364 Plantation St., Worcester, MA 01605 (e-mail: anthony.carruthers@umassmed.edu )
AJP - Cell Physiology – The American Physiological Society
Published: Feb 1, 2007
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