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1 mbrane of Escherichia coli (galactoside/H(+) symport).
2 upling galactoside and H(+) transport (i.e., symport).
3 Escherichia coli membrane (galactoside/H(+) symport).
4 ts vicinity affect the pK(a) of glucose/H(+) symport.
5 s offer a mechanistic model for lactose/H(+) symport.
6 se pathway following uptake via sugar:cation symport.
7 conserved glutamate residue mediates proton symport.
8 mobile barrier mechanism for cation-coupled symport.
9 at may be essential for effective H(+)/sugar symport.
10 sm that deviates from the canonical model of symport.
11 terminal domain to initiate galactoside/H(+) symport.
12 de mechanistic insights into Na(+)/melibiose symport.
13 the proteoliposome lumen due to H(+)-proline symport.
14 hat also permits a facultative NO(2)(-)/H(+) symport.
15 ally involved in the mechanism of sugar/H(+) symport.
16 o this site triggers Na(+)-coupled substrate symport.
17 likely to underlie LacY-catalyzed sugar/H(+) symport.
18 nt state that is essential for Na(+)-coupled symport.
19 out this process, it may be driven by proton symport.
20 a mechanical switch device for H(+)-coupled symport.
21 is suggested to result from H(+)-amino acid symport.
22 phatase activity acting as a chloride/proton symport.
23 ports and a bumetanide-sensitive Na+-K+-2Cl- symport.
24 ivotal role in the mechanism of lactose/H(+) symport.
25 rter to uncouple sugar transport from proton symport.
26 counterflow, neither of which involves H(+) symport.
27 osine transporter from the Nucleobase-Cation-Symport-1 (NCS1) transporter family, a member of the wid
31 transporters have low-to-modest H(+) /Cl(-) symport activity and their mechanism of action remains l
34 acrocycle that has a record-high H(+) /Cl(-) symport activity similar to that of prodigiosin and most
36 Despite the availability of structures, the symport and antiport mechanisms still need to be clarifi
37 ies, we propose a mechanism for glucose/H(+) symport and discuss the symport mechanism versus facilit
38 p via a specific proton-coupled electrogenic symport and that this transport is essential for parasit
40 relationship between PAT1 (H(+) /amino acid symport) and NHE3 (N(+) /H(+) exchange) explains the app
41 of Escherichia coli catalyzes L-fucose/H(+) symport, and a crystal structure in an outward-facing co
43 s, where they are energized and regulated by symported, antiported and allosteric ions on both sides
44 tration gradient, both of which involve H(+) symport, Arrhenius plots with wild-type permease exhibit
45 325 in helix X is obligatory for lactose/H+ symport at a step corresponding to deprotonation of lact
46 n, catalyzes stoichiometric galactoside/H(+) symport by an alternating access mechanism and exhibits
48 ional carrier model, accounts for diminished symport by H322N mutant; how H322 mutants become uniport
52 s the role of TM1 in Na(+)-coupled substrate symport by the SSSs, here we have studied the role of a
53 ers that use either facilitated diffusion or symport can have a rate-affinity tradeoff, where an incr
55 pose a possible mechanism for lactose/proton symport (co-transport) consistent with both the structur
56 he low-affinity, high-capacity, arabinose/H+ symport, conserves the ATP expended in pentose transport
57 rs that facilitate transmembrane H(+) /Cl(-) symport (cotransport) have anti-cancer potential due to
59 the primary site, thereby functioning as a "symport effector." Because tricyclic antidepressants bin
60 e transport protein of the nucleobase-cation-symport family and a member of the widespread 5-helix in
61 ch are conserved in the oligosaccharide/H(+) symport family of the major facilitator superfamily.
64 s-319 with Asp-240 paradoxically inactivates symport; how some multiple mutants become revertant tran
66 appear essential not only for sodium-coupled symport in general but also for the function of other ty
67 ) transporters in plants and that Na(+)/K(+) symport in HKT proteins is associated with a glycine in
69 wing: (i) The limiting step for lactose/H(+) symport in the absence of the H(+) electrochemical gradi
70 recently proposed mechanism for lactose/H(+) symport in which substrate binding induces a conformatio
71 bound to the neurotransmitter glutamate with symported ions, potassium ions, sodium ions alone, or wi
75 chieve million-fold transmitter gradients by symporting it with three sodium ions and a proton, and c
76 ies to gain insights into the cation-coupled symport mechanism for Na(+)-coupled MFS transporters.
77 ing conformation have led to a model for the symport mechanism in which both sugar and H+ binding sit
80 membrane, leading to an unusual H(+) /Cl(-) symport mechanism that involves only charged species.
84 released into the synapse in a co-transport (symport) mechanism driven by the Na(+) electrochemical g
89 ctate fluxes, is that monocarboxylate-proton symport occurs via a rapid-equilibrium ordered mechanism
90 CCs) NKCC1 and NKCC2 catalyze electroneutral symport of 1 Na(+), 1 K(+), and 2 Cl(-) across cell memb
91 a highly dynamic membrane protein, catalyzes symport of a galactopyranoside and an H(+) by using an a
94 (MelB) catalyzes the coupled stoichiometric symport of a galactoside with a cation (either Na(+), Li
95 of Escherichia coli catalyzes stoichiometric symport of a galactoside with an H(+), using a mechanism
96 LacY carries out the coupled stoichiometric symport of a galactoside with an H(+), using the free en
97 somal transporter that mediates H(+)-coupled symport of acidic sugars N-acetylneuraminic acid and glu
98 s (CCCs) mediate the coupled, electroneutral symport of cations with chloride across the plasma membr
99 otransporters (CCCs) catalyze electroneutral symport of Cl(-) with Na(+) and/or K(+) across membranes
100 rium (MelB(St)) catalyzes the stoichiometric symport of galactopyranoside with a cation (H(+), Li(+),
104 Salmonella typhimurium (MelB(St)) catalyzes symport of melibiose with Na(+), Li(+), or H(+), and bio
108 mitter glutamate from synapses are driven by symport of sodium ions and counter-transport of a potass
109 should also be able to perform proton/toxin symport or uniport, leading to toxin susceptibility rath
110 of uniport and voltage-dependent H(+) /Cl(-) symport originate from strong binding to phospholipid he
112 of transporters the amino acid/auxin:proton symport permeases with homology to AUX1, a putative IAA
113 tifiable physical changes in the L-fucose-H+ symport protein, FucP, from Escherichia coli, and this p
115 shed that SdcS facilitates an electroneutral symport reaction having a 2:1 cation/dicarboxylate ratio
116 m efflux by an ATP-dependent proton-ethidium symport reaction in which the carboxylate E314 is critic
121 -)/HCO(3)(-) exchange versus Na(+)-CO(3)(2-) symport) revealed highly conserved three-dimensional org
122 access model for transport, namely, that all symported substrates must bind together before transloca
123 em to contain at least one amino acid-cation symport system that allows their cells to accumulate cer
125 ibrium exchange, which does not involve H(+) symport, the change in activation energy is much less pr
126 ntact with several amino acids essential for symport; the switch model requires allosteric interactio
130 e permease (LacY) catalyzes galactoside/H(+) symport via an alternating access mechanism in which sug
132 itochondrial phosphate carrier (PiC, Pi/H(+) symport), which provides Pi to the matrix to sustain ATP
133 tes that coordinated activity of H(+)/solute symport with apical Na(+)/H(+) exchange optimizes the ef