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1 e membrane potential created by the vacuolar H+ pump.
2 tion of an electrogenic ion pump such as the H+ pump.
3 nsporter could function as either a Na+ or a H+ pump.
4 rabidopsis genome encodes 11 plasma membrane H+ pumps.
5 al rates of ATP hydrolysis and ATP-dependent H+ pumping.
6 de the counterions required for electrogenic H+ pumping.
7 omplex is fully functional in ATPase-coupled H(+) pumping.
8 ins and are not involved directly in proton (H(+)) pumping.
9 F1 enzyme became increasingly uncoupled from H+ pumping above 28 degreesC.
10 , caused a 38 +/- 5% decrease in the initial H(+) pump activity in the wild type, while no change was
11  or membrane potential, and it does not have H(+) pump activity.
12  acidic pH microdomains resulted from Ca(2+)-H(+) pump activity.
13 s autophagy, by maintaining vacuole V-ATPase H(+) pump activity.
14 t and H(+)-PPiase activities and induced the H(+) pumping activity of the endogenous V-ATPase.
15 ia, and one archaeon additionally exhibit an H(+)-pumping activity in inverted membrane vesicles prep
16 pling ratio of the nitrate-insensitive fruit H+ pumping activity is lower than that of nitrate-sensit
17 old inactivation treatment failed to inhibit H+ pumping activity of the fruit membranes, even though
18                    In addition, the epicotyl H+ pumping activity was inactivated by oxidation was rev
19  few transporters, including plasma membrane H+ pump AHA3, Ca2+ pump ACA9, and K+ channel SPIK, furth
20 ransporter along the proximal tubule and the H+-pump along the collecting duct), the model yields seg
21 intercalated cells, in which the polarity of H(+) pumps and Cl(-)/HCO(3)(-) exchangers is reversed, o
22 s were found in many transporters, including H(+) pumps and H(+):cation antiporters, often at residue
23            Such a mechanism may require less H(+)-pumping and energy for upregulating pH compared wit
24 e mutants showed pH-dependent ATPase-coupled H+ pumping and passive H+ transport through Fo.
25 lar loop of subunit c restored ATP-dependent H+ pumping and transition state thermodynamic parameters
26 el establish a polarized distribution of Na+/H+ pumps and aquaporins in the cell membrane, which crea
27                        A kinetic analysis of H+-pumping and H+-leakage indicated that the reconstitut
28                             The light-driven H(+) pump ArchT was expressed in astrocytes of mouse cor
29 genous yeast H+ ATPase activity, we analyzed H+ pumping at pH >/= 8.0 in detail in order to selective
30 0 complex, which is thought to determine the H+-pumping/ATP stoichiometry, was previously not determi
31 ns in the a2 subunit of the vesicular ATPase H+-pump (ATP6V0A2).
32 ton gradient generated through the action of H+ pumps belonging to the P-type ATPase superfamily.
33 6.82 +/- 0.06 and inhibition of the V-ATPase H(+) pump by Cl(-) removal or via the selective inhibito
34 and aL120C/H245C in TMH2 and TMH5, inhibited H(+) pumping by 85-90%.
35   This feature results in an optimization of H(+) pumping by the V-ATPase according to existing H(+)
36                                     Blocking H(+) pumping by vesicular H(+)-ATPase (with folimycin or
37                                 In contrast, H+ pumping by the fruit tonoplast-enriched membranes was
38 ssay conditions, rates of NTP hydrolysis and H+ pumping by the H,K-ATPase for CTP are about 10% of th
39 ha-helical segments during the course of the H(+) pumping catalytic cycle.
40 eria where it plays an analogous role to the H(+)-pumping complex I.
41            A detailed study of ATP-dependent H(+)-pump currents at a variety of different pH conditio
42 P(H+) and successive increases in the active H(+) pump density.
43 ) into the lysosome, inhibiting the V-ATPase H(+) pump did not prevent Ca(2+) refilling.
44 rate, Cl(-)/H(+) exchange stoichiometry, and H(+) pumping driven by a Cl(-) gradient.
45 in D178N, D303A, and D400A mutants where the H(+) pumping efficiency had already been significantly d
46 cteria the primary function of the enzyme is H+ pumping for cytoplasmic pH regulation.
47                                      Primary H(+) pumps from the AHA family showed little isoform spe
48                            Nitrate uncouples H+ pumping from ATP hydrolysis both in epicotyls and in
49 ents was investigated by assaying ATP driven H(+) pumping function before and after cross-linking pai
50                                              H(+) pumping function was largely unaffected by modifica
51      A pharmacological screen implicated the H+-pump H+-V-ATPase in Xenopus asymmetry, where it acts
52 rate-sensitive and nitrate-insensitive fruit H+-pumps have identical Km values for MgATP, and show si
53 DR-TCBD protein does not catalyze measurable H(+) pumping in the presence of ATP.
54 mil stimulation of MDR 1 ATPase activity and H+ pumping in 9.3/hu MDR 1 ISOV.
55 cter of E427Q mutants and the enhancement of H+ pumping in E427D mutants by comparison with wild type
56              Activation of a plasma membrane H+ pump initiates K+ and Cl- influx, accompanied by mala
57        We show that activity of the V-ATPase H(+) pump is required for regeneration but not wound hea
58  acidic, calcium storage compartments with a H(+) pump located in their membrane that have been descr
59 fluid, confirming the existence of a proton (H(+)) pumping mechanism.
60                                The bacterial H(+)-pumping NADH-quinone oxidoreductase (NDH-1) is an L
61 tion that results in a constitutively active H(+) pump partially suppressed SAUR-immune pp2c.d5 pheno
62 is apical H+ secretion via Na-H exchange and H+ pumping, processes that can be studied using the NH4+
63 lant growth are mediated in part by a type I H(+)-pumping pyrophosphatase (H(+)-PPase).
64 ive subunit of the H+-V-ATPase or an ectopic H+ pump, randomized embryonic situs without causing any
65 r cation channel SlTPC1 and the two vacuolar H(+)-pumps, SlAVP1 and SlVHA-A1, which in turn are revea
66 t represses the transcription of a lysosomal H+ pump subunit that is critical for lipid degradation a
67  oocytes indicates that the capacity of this H(+) pump to recharge the membrane potential is rooted i
68 ed support K+-stimulated NTPase activity and H+ pumping up to 30-50% of that with ATP.
69 al PP(i)-induced outward currents related to H(+) pumping, whereas they were significantly larger in