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1 e applied to real-time structural studies of ion channel gating.
2  and how small molecules inhibit or activate ion channel gating.
3 the M3 helices that, in turn, are coupled to ion channel gating.
4 ntly affected by the inherent variability of ion channel gating.
5 vation effects play only minor roles in GLIC ion channel gating.
6  be included in quantitative descriptions of ion channel gating.
7 individual dimer assemblies in activation of ion channel gating.
8 bunit that influence alcohol sensitivity and ion channel gating.
9  of the binding domain importantly influence ion channel gating.
10  provides a first view at high resolution of ion channel gating.
11 xperiments alone, such as ion conduction and ion channel gating.
12 A subunit that regulates desensitization and ion channel gating.
13 drolyze ATP and in some manner regulate CFTR ion channel gating.
14 gh or does not generate sufficient force for ion channel gating.
15 g how neurotransmitter binding is coupled to ion channel gating.
16 nravel a noncanonical role for CaM in tuning ion channel gating.
17 ctive oxygen species (ROS) that can modulate ion channel gating.
18 membrane targeting of Src family kinases and ion channel gating.
19 m by which mechanical force is transduced to ion channel gating.
20 ilayers and generate currents which resemble ion channel gating.
21  mechanisms of blocker-induced modulation of ion channel gating.
22  biological channels, with possible roles in ion-channel gating.
23 alleable nature of free-energy landscapes of ion-channel gating.
24 pled 5-hydroxytryptamine2A receptors and the ion-channel gating 5-HT3 receptors, in cortical neuron t
25                                              Ion channel gating and conductance are classically under
26 ricular myocyte that incorporates stochastic ion channel gating and detailed Ca(2+) cycling.
27 er by subunit-subunit contacts implicated in ion channel gating and receptor assembly.
28 anism of temperature-dependent regulation of ion channel gating and shed light on ancient origins of
29 kinetic process of the type used to describe ion channel gating and synaptic transmission.
30 e, the structural mechanism of ATP-dependent ion channel gating and the architecture of the open ion
31 ology and play distinct roles in controlling ion channel gating and trafficking of AMPAR.
32  interactions govern protein trafficking and ion channel gating, and these are likely to be reflected
33  diverse as outer hair cell electromotility, ion channel gating, and transport.
34 ecular events controlling glutamate receptor ion channel gating are complex.
35                    Two general categories of ion channel gating are defined by the initiating stimulu
36  binding cores is required for activation of ion channel gating by agonists.
37                Polypeptide neurotoxins alter ion channel gating by binding to extracellular receptor
38             Although molecular mechanisms of ion channel gating by chemical and voltage stimuli are u
39 nstrate a novel enzymatic mechanism by which ion channel gating can be modulated by activity.
40 crete-state Markov (DSM) model in describing ion channel gating current kinetics.
41 ical role in regulating receptor activation, ion channel gating, endocytosis, and actin nucleation.
42  previous communication, the initial step in ion channel gating for voltage-gated channels was attrib
43       Inferring adequate kinetic schemes for ion channel gating from ensemble currents is a daunting
44 e biophysical basis of temperature-sensitive ion channel gating has been a tough nut to crack.
45 nderlying Gloeobacter violaceus ligand-gated ion channel gating in a membrane environment and report
46                 Next, we simulate stochastic ion-channel gating in a calcium channel with multiple su
47                                              Ion channel gating is essential for cellular homeostasis
48                                      Whether ion channel gating is independent of ion permeation has
49 own to inhibit NMDA receptors by influencing ion-channel gating, its molecular site of action and the
50 ng from regulation of trafficking to shaping ion channel gating kinetics.
51 ns (endowed with deterministic or stochastic ion-channel gating kinetics) of heterogeneous biophysica
52 del, challenging long-held assumptions about ion channel gating models at equilibrium.
53                   The molecular mechanism of ion channel gating remains unclear.
54   Like other protein conformational changes, ion channel gating requires the protein to achieve a hig
55                      It is not known whether ion channel gating takes place on a broad energy landsca
56 nes are classically studied as regulators of ion channel gating that engage the nAChR channel pore.
57 scale secondary structural transition during ion channel gating that fine-tunes I(Ks) function and pr
58 with a predominance of the GluN2A subunit in ion channel gating, the GluN2A subunit interacts more ex
59 nment, and highlight the power of describing ion channel gating through the lens of allosteric coupli
60 of circuits at distinct scales, ranging from ion channel gating to circuit connectomics.
61 ion of how agonist binding is decoupled from ion channel gating upon receptor desensitization.
62 re of CNG channels and how it changes during ion channel gating, we introduced single cysteines along
63 80 it became clear that processes other than ion channel gating were also critical in generating elec
64 h the conformational changes associated with ion channel gating, will stimulate development of new ph