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1 high-resolution structure of this ATP-driven ion pump.
2 a threonine, that protein became a chloride ion pump.
3 smitter delivery from the organic electronic ion pump.
4 as well as ion channels and the Na/K-ATPase ion pump.
5 rotein interactions, in addition to being an ion pump.
6 anism may be a progenitor of photobiological ion pumps.
7 realized previously using organic electronic ion pumps.
8 e channel-forming small molecule and protein ion pumps.
9 perometric biosensors and organic electronic ion pumps.
10 opulations that had already evolved distinct ion pumps.
11 while eukaryotic V-type ATPases function as ion pumps.
12 tivation of vision pigments and light-driven ion pumps.
13 a canonical photocycle typical for microbial ion pumps.
14 branch of P-type ATPases, a large family of ion pumps.
15 action cycle of this family of ATP-dependent ion pumps.
16 and a member of the P-type ATPase family of ion pumps.
17 ate sufficient electric fields for effective ion pumping.
18 is performing cellular functions other than ion pumping.
19 all design principles that are necessary for ion pumping.
21 sequence primarily of the ability to depress ion pumping activities of cells, macromolecular synthesi
23 ring from the vacuolar-type (V-type) sodium ion-pumping adenosine triphosphatase (Na+-ATPase) from E
26 By assessing the energy used on postsynaptic ion pumping and action potentials, we show that, instead
29 ) in M6, also play critical roles in related ion pumps and are therefore likely to be common architec
30 ing extensively studied, the central role of ion pumps and carriers is largely ignored in current neu
31 ns is based on the operation of plasmalemmal ion pumps and carriers that establish transmembrane ion
32 s directly regulate the genes of a number of ion pumps and channels, these results suggest that Na(+)
34 ers such as inositol trisphosphate, cellular ion pumps and membrane channels has become more clearly
35 dings affirm the alternating-access model of ion pumps and offer the possibility of examining ion occ
36 hy membrane bioenergetics are universal, yet ion pumps and phospholipid membranes arose later and ind
39 in this enzyme, a cytochrome c oxidase-type ion-pump and a Q-cycle mechanism, on the basis of the th
40 odopsin (HOP), a light-gated inward chloride ion pump, and measured extracellular receptor potentials
42 th key ion-binding residues of P-type ATPase ion pumps, and N905D was recently identified as one of t
43 hanosensitive ion channels, energy-consuming ion pumps, and the actomyosin cortex, that coordinate to
44 -inspired adsorption-responsive photothermal ion pump (APIP) for enhanced and reversible Li(+) extrac
46 biological entities such as ion channels and ion pumps as a function of ion type and concentration.
47 Th?e atomic structure of the light-driven ion pump bacteriorhodopsin and the surrounding lipid mat
48 umping Ca(2+) (which uses 1 ATP per 2 Ca(2+) ions pumped), but by the 10th and subsequent twitches th
49 s to the previously unknown structure of the ion-pumping channel in the C-type Coxs and provides insi
51 ons contain open reading frames for a P-type ion pump (CopA) with homology to Cd2+ and Cu2+ ATPases a
52 ly are believed to be bacterial redox-driven ion pumps, coupling an oxidoreduction process to the tra
55 ase mechanism with strong resemblance to the ion pumps, despite a location of the translocation pathw
56 diverse protein families, including V-ATPase ion pumps, DNA-binding transcription regulators, and ser
57 oth an energy reserve, capable of sustaining ion pumping during periods of transient stress, as well
60 the spontaneous activator/enzyme release and ion pumping enable enzymes to sufficiently interact with
61 ells that harbor phosphorylases and kinases, ion pumps exhibiting substantial ATPase activity, and my
62 mbrane Ca(2+) ATPase 2 (PMCA2), an essential ion pump expressed exclusively in grey matter and involv
64 of these structural changes reveals how this ion pump first facilitates ion uptake deep within the ce
65 lymer membrane as a light-powered artificial ion pump for active ion transport, which exhibits potent
68 , suggesting that the signal-transducing and ion-pumping functions of Na(+)/K(+)-ATPase cooperate in
69 says confirmed the alkaline induction of two ion pump genes (ENA1 and VMA4), several ion limitation g
73 Na(+)/K(+)-ATPase as an energy transducing ion pump has been studied extensively since its discover
74 ynaptic strengths or ionic conductances, and ion pumps have only rarely been demonstrated to play a d
76 to isolate the energetics of an electrogenic ion pump in an engineered in vitro environment to power
81 ach, using the fast generation of functional ion pumps incorporated into nanodiscs and their subseque
82 ating that the Drosophila Na,K-ATPase has an ion-pump-independent role in junction formation and trac
83 odes of action (i.e. CdCl(2) toxicity versus ion pump inhibition by ouabain), a significant advance a
84 lthough halorhodopsin is normally a chloride ion pump, it evidently contains all structural requireme
85 nding proteins that function as light-driven ion pumps, light-gated ion channels, and photosensors, w
88 can be realized with water electrolysis and ion pumping membranes, to avoid costly mechanical compre
92 sons: glycolytic enzymes are associated with ion pumps; neurons may increase their energy supply by a
95 uction of the R109Q mutation into the sodium ion pump of Dokdonia eikasta (KR2) results in passive io
101 tion that occlusion/deocclusion reactions of ion pumps perturb the membrane surrounding the protein,
102 stidine-tagged yeast secretory pathway/Golgi ion pump Pmr1 to near homogeneity in one step, using nic
103 nerated in the yeast secretory pathway/Golgi ion pump, Pmr1, targeting oxygen-containing side chains
107 d seem to be simply to optimize the enzyme's ion pumping rate under its normal physiological conditio
108 pairs may be a general feature of P2-ATPase ion pumps, reflecting a flexibility of this region that
109 ndicate that PMR1 and PMR2A, encoding P-type ion pumps required for Mn2+ and Na+ tolerance, may also
112 RNA interference of the H(+),K(+)-ATPase ion pump results in membrane hyperpolarization, which ha
114 , by primary sequence, more closely resemble ion pump rhodopsins; mechanisms for passive channel cond
117 sting of cyanobacterial chloride and sulfate ion-pumping rhodopsins, the Mastigocladopsis repens rhod
123 Pase protein family includes, in addition to ion pumps such as Ca(2+)-ATPase and Na(+),K(+)-ATPase, a
124 a single ion channel and the activity of an ion pump suffice to dramatically increase the propensity
128 emical model for the functioning of the V(o) ion pump that is consistent with the known structural fe
130 e conductors in the form of ion channels and ion pumps that work together to form ion concentration g
132 espective contributions of NKA signaling and ion pumping to the overall regulation of RPT Na(+) reabs
134 lectrochemical gradients provided by primary ion pumps to translocate metabolites or drugs "uphill" a
136 g proteins, and downstream executors such as ion pumps, transporters, and plasma membrane channels th
138 , changes in the expression of several other ion pumps, vesicular proteins, mitochondrial enzymes and