ライフサイエンスコーパス: Kv channel

1 Kv channel alpha-subunits were fused with GFP variants,

2 Kv channel-interacting proteins (KChIPs) are auxiliary s

3 Kv channels consist of pore-forming alpha- and auxiliary

4 Kv channels detect changes in the membrane potential via

5 d the crystal structure of paddle chimera, a Kv channel in complex with charybdotoxin (CTX), a pore-b

6 The mix-and-match of subunits in a Kv channel that contains four similar or identical pore-

7 A putative AKR in complex with a Kv channel has led to the hypothesis that intracellular

8 e its KCNE relatives, MPS-4 assembles with a Kv channel, EXP-2, to form a complex that controls phary

9 st be well controlled, little is known about Kv channel delivery and retrieval on the cell surface.

10 to UV irradiation is initiated by activating Kv channels in the cell membrane, and the later event is

11 This mechanically induced shift could allow Kv channels and perhaps other voltage-dependent ion chan

12 Kv2.1 is unique among Kv channels in that it targets to large surface clusters

13 tin-binding scaffold protein, cortactin, and Kv channel remodeling in the heart.

14 an LF-protease effect that enhances Kir and Kv channel function during toxin stimulation.

15 e-gated potassium channel alpha subunits and Kv channel-interacting protein (KChIP) and dipeptidyl am

16 nt to substantial differences between BK and Kv channels in the structure and function of the S6-line

17 mental structural differences between BK and Kv channels in their inner pore region, which likely und

18 structural elements within TRP channels and Kv channels are not sufficiently related to allow for th

19 Furthermore, blocking Kir and Kv channels significantly decreased LeTx-induced release

20 Moreover, the recruitment of Nav and Kv channels to specific membrane domains at remyelinated

21 ure sensitivity is intrinsic to both TRP and Kv channels.

22 ts on hypoxic pulmonary vasoconstriction and Kv channels.

23 KvAP is a well-characterized archeal Kv channel that has been widely used to investigate many

24 As Kv channel inactivation and inactivation recovery rates

25 Although hydrophobic cations block Kv channels with Hill coefficients of 1, uncharged elect

26 and amplitude were increased after blocking Kv channels with 4-aminopyridine.

27 By blocking Kv channels, 4-AP facilitates action potential conductio

28 c and neuromuscular transmission by blocking Kv channels.

29 Furthermore, blocking Kv channels did not mimic or change the potentiating eff

30 ase of JNK, resulting in suppression of both Kv channel-involved and DNA damage-induced p53 activatio

31 KCNQ1/KCNE1 complex, a task made possible by Kv channel crystal structures (templates for KCNQ1 homol

32 re their functional effects on human cardiac Kv channel alpha subunits expressed in Xenopus laevis oo

33 subunits in the generation of native cardiac Kv channels.

34 Pergolide causes Kv channel inhibition and, despite being from a differen

35 ins inhibit voltage-dependent K(+) channels (Kv channels) by plugging the ion-conduction pathway.

36 ltage-dependent potassium ion (K+) channels (Kv channels) conduct K+ ions across the cell membrane in

37 Voltage-gated potassium channels (Kv channels) are involved in repolarization of excitable

38 ges in voltage-dependent potassium channels (Kv channels) associate to proliferation in many cell typ

39 In this study of the paddle chimera Kv channel, we demonstrate that the rate of channel open

40 of the G(V) curves of wild-type and chimeric Kv channels expressed in Xenopus oocytes, using the volt

41 emical, and biophysical analyses of chimeric Kv channels show that the Kv2.1 cytoplasmic C-terminal d

42 n regulating trafficking of Kv1.2-containing Kv channels.

43 0.54 mm and PAC, a disubstituted cyclohexyl Kv channel inhibitor, inhibited with an IC50 = 0.57 micr

44 Moreover, targeting of different Kv channels to specific subcellular compartments and loc

45 each component is likely encoded by distinct Kv channel alpha-subunits.

46 is tuned by the local influence of distinct Kv channel types, and this organization enhances the fun

47 ficking and surface localization of distinct Kv channels based on their subunit composition.

48 phorylation-dependent trafficking to diverse Kv channel complexes.

49 ation, and cholinergic modulation to diverse Kv channels.

50 itional auxiliary subunits further diversify Kv channels.

51 in the pore of Deg/ENaC channels as it does Kv channels, suggesting a similar mechanism of inhibitio

52 ype inactivation in a Caenorhabditis elegans Kv channel.

53 racellular surface of the channel that endow Kv channels with a mechanism to time the entry into slow

54 2 interacted with prokaryotic and eukaryotic Kv channels but did not occlude either.

55 Four Kv channel-interacting proteins (KChIP1 through KChIP4)

56 sensors are required to produce a functional Kv channel by investigating heterotetramers comprising c

57 the closed state of the Shaw2 voltage-gated (Kv) channel (K-Shaw2) by directly interacting with a dis

58 results validate the modular design of human Kv channels and highlight the PM as a high-fidelity targ

59 roglia function, prompting us to hypothesize Kv channels may also be involved in microglia-mediated n

60 To determine their identity, Kv channel types were sought in cultured rabbit corneal

61 is for expression-level-dependent changes in Kv channel gating observed in heterologous expression st

62 ls from sham and CHF rabbits; (3) changes in Kv channel protein expression (Kv3.4 versus Kv4.3) in th

63 S6 inner helix sharper than that observed in Kv channel structures.

64 iological roles of heat-induced variation in Kv channel activities.

65 Hanatoxin with the voltage-sensor paddle in Kv channels and show that the toxin binds tightly even a

66 rface between the voltage sensor and pore in Kv channels.

67 oning of larger membrane proteins, including Kv channels in a membrane setting.

68 stigate mechanisms of UV irradiation-induced Kv channel activity involving p53 activation in parallel

69 e mechanism by which these molecules inhibit Kv channels.

70 Hanatoxin is a tarantula toxin that inhibits Kv channels by binding to voltage-sensor paddles, crucia

71 ge needed to open different voltage-gated K (Kv) channels differs by up to 50 mV from each other.

72 ) are widely used as voltage-activated K(+) (Kv) channel blockers and can improve neuromuscular funct

73 chanism by which the voltage-dependent K(+) (Kv) channel Kv2.1 (KCNB1) facilitates depolarization-ind

74 her than observed in voltage-dependent K(+) (Kv) channel structures, requiring that the proline betwe

75 Voltage-gated K(+) (Kv) channel activation depends on interactions between v

76 Kv4.2 is the major voltage-gated K(+) (Kv) channel alpha subunit responsible for the somatodend

77 The voltage-gated K(+) (Kv) channel blocker 4-aminopyridine (4-AP) is used to ta

78 A functional voltage-gated K(+) (Kv) channel comprises four pore-forming alpha-subunits,

79 nct modifications in the voltage-gated K(+) (Kv) channel Kv2.1 in response to short- and long-term SD

80 demonstrating a role for voltage-gated K(+) (Kv) channel pore-forming (alpha) subunits of the Kv4 sub

81 sorless pore module of a voltage-gated K(+) (Kv) channel showed that lipids occupy a crevice between

82 1 recognition domains of voltage-gated K(+) (Kv) channel subunits form tetramers and acquire tertiary

83 y of five KCTD5 and four voltage-gated K(+) (Kv) channel subunits; four amino acid differences appear

84 ctivity and inhibits voltage-activated K(+) (Kv) channels.

85 lled by voltage-gated Ca(2+) (Cav) and K(+) (Kv) channels, modulates axon growth.

86 ical recordings that voltage-dependent K(+) (Kv) channels exhibit exquisite sensitivity to small (phy

87 Voltage-dependent K(+) (Kv) channels form the basis of the excitability of nerve

88 Voltage-dependent K(+) (Kv) channels play key roles in shaping electrical signal

89 Voltage-dependent K(+) (Kv) channels underlie action potentials through gating c

90 omeric complexes between voltage-gated K(+) (Kv) channels and accessory (beta) subunits is a widespre

91 Voltage-gated K(+) (Kv) channels are key factors in controlling membrane exc

92 Voltage-gated K(+) (Kv) channels are molecular switches that sense membrane

93 Voltage-gated K(+) (Kv) channels are tetrameric assemblies in which each mod

94 Voltage-gated K(+) (Kv) channels couple the movement of a voltage sensor to

95 dly inactivating, A-type voltage-gated K(+) (Kv) channels expressed in hippocampal CA1 pyramidal dend

96 discrete arrangement of voltage-gated K(+) (Kv) channels in axons may impart functional advantages i

97 Voltage-gated K(+) (Kv) channels regulate membrane potential in many cell ty

98 nesin I transports Kv3.1 voltage-gated K(+) (Kv) channels through the axon initial segment (AIS) via

99 ls structurally resemble voltage-gated K(+) (Kv) channels, their structure-function correlation is mu

100 activating A-type (I(A)) voltage-gated K(+) (Kv) channels, which are also active at subthreshold memb

101 ive outwardly rectifying voltage-gated K(+) (Kv) channels.

102 de accessory subunits of voltage-gated K(+) (Kv) channels.

103 belong to the family of voltage-gated K(+) (Kv) channels.

104 gs to the superfamily of voltage-gated K(+) (Kv) channels.

105 Voltage-gated K+ (Kv) channel accessory (beta) subunits associate with por

106 ve demonstrated a role for voltage-gated K+ (Kv) channel alpha subunits of the Kv4 subfamily in the g

107 y test the hypothesis that voltage-gated K+ (Kv) channel pore-forming (alpha) subunits of the Kv4 sub

108 he gating mechanism of voltage-activated K+ (Kv) channels is how five positively charged voltage-sens

109 osing of voltage-activated Na+, Ca2+ and K+ (Kv) channels underlies electrical and chemical signallin

110 Voltage-dependent K+ (Kv) channels repolarize the action potential in neurons

111 the apparent activation of voltage-gated K+ (Kv) channels by a sphingomyelinase.

112 Some eukaryotic voltage-gated K+ (Kv) channels contain an N-terminal inactivation peptide

113 Voltage-gated K+ (Kv) channels control the excitability of arterial smooth

114 N-type inactivation in voltage-gated K+ (Kv) channels is a widespread means to modulate neuronal

115 ivity of Ca2+-independent, voltage-gated K+ (Kv) channels to hypoxia in CB glomus cells from CHF rabb

116 of calcium-binding proteins, termed KChIPs (Kv channel interacting proteins), that bind to the cytop

117 iological results show that Kv3.4, the major Kv channel in the axonal growth cones of embryonic dorsa

118 ermined the atomic structures of a mammalian Kv channel Kv1.2 and a mutant of Kv1.2 named the 'paddle

119 resolution of 2.9 angstroms, of a mammalian Kv channel, Kv1.2, which is a member of the Shaker K+ ch

120 such role has been established for mammalian Kv channels.

121 ast produce 'normally functioning' mammalian Kv channels with qualitatively similar features to the S

122 h prototypic bacterial, fungal, or mammalian Kv channels.

123 unit of the kind that can regulate mammalian Kv channels in their native cell environment.

124 eir action on three representative mammalian Kv channels (Kv2.1, Kv3.4, and Kv4.2) expressed in Xenop

125 Many Kv channels undergo a progressive loss of ion conductanc

126 We conclude that AMPK mediates Kv channel inhibition by hypoxia in pulmonary arterial m

127 ly distinct types of Kv4 channel modulators, Kv channel-interacting proteins (KChIPs) and dipeptidyl-

128 arized VSD conformation, a hallmark for most Kv channels, requires large side chains at positions F29

129 ncover a role for PC1 in regulating multiple Kv channels, governing membrane repolarization and alter

130 II (Ang II) regulates arterial smooth muscle Kv channel function via calcineurin-dependent activation

131 ght contribute to the complexity of neuronal Kv channel regulation.

132 ons and suggests strategies to develop novel Kv channel activators.

133 owever, while crotamine localized to occlude Kv channels in eukaryotic but not prokaryotic cells, hBD

134 n widely used to investigate many aspects of Kv channel biochemistry, biophysics, and structure.

135 These DABCO salts represent a new class of Kv channel blockers, some with higher potencies than any

136 the interface is discussed in the context of Kv channel gating models and provides support for a mode

137 Deficits of Kv channel subunit expression and function have been imp

138 ed structures of the N-terminal T1 domain of Kv channel alpha subunits that mediates contranslational

139 Alternative splicing and RNA editing of Kv channel genes diversify the channel property and expr

140 criptionally controls rhythmic expression of Kv channel-interacting protein 2 (KChIP2), a critical su

141 eme is activity-dependent phosphorylation of Kv channel activity and suggests that intracellular sign

142 at DABCO compounds hold promise as probes of Kv channel structure and identity and as potential thera

143 allow it to serve as a negative regulator of Kv channel activity.

144 ng apoptosis, we reasoned that repression of Kv channel genes might have a role in cancer cell surviv

145 the T1-S1 linker exists at an early stage of Kv channel biogenesis.

146 However, suppression of Kv channel activity failed to prevent p53 activation ind

147 at were markedly inhibited by suppression of Kv channel activity.

148 llular compartments and local translation of Kv channel mRNA in neuronal processes diversify axonal a

149 cells and suggest that more than one type of Kv channel may be involved in the regulation of glucose-

150 Here we show that a given type of Kv channel may interact with several species of phosphol

151 VS-1 is the first example of a novel type of Kv channel simultaneously possessing an N-inactivating b

152 The results suggest caution in the use of Kv channel structures as templates for BK homology model

153 Voltage-driven activation of Kv channels results from conformational changes of four

154 e in the cell membrane through activation of Kv channels to activate the JNK signaling pathway and p5

155 he novel sevoflurane-dependent activation of Kv channels, which helps explain how closely related inh

156 Blockade of Kv channels at individual boutons indicates that current

157 properties and/or cell surface expression of Kv channels in heterologous expression systems.

158 stsynaptic factors influencing expression of Kv channels were explored using organotypic cultures of

159 The ether-a-go-go family of Kv channels (KCNH) encompasses three distinct subfamilie

160 complexes extended to Shab-related family of Kv channels.

161 quence of folding events in the formation of Kv channels.

162 analogous role in the inactivation gating of Kv channels.

163 iate neurotransmitter release independent of Kv channels.

164 ns of mice, the composition and influence of Kv channels populating the axon is diverse and depends o

165 pothesis, we investigated the involvement of Kv channels in the response of microglia to HIV-1 Tat pr

166 Expression and localization of Kv channels is regulated by trafficking signals encoded

167 , in compact cell types, the organization of Kv channels is poorly understood.

168 a high-fidelity target for drug screening of Kv channels.

169 AT1R signalling increases the sensitivity of Kv channels to hypoxia in CB glomus cells from CHF rabbi

170 Consistent with the structure of Kv channels and previous studies on the KCNE1-Kv7.1 inte

171 Previous extensive studies of Kv channels provide a means to evaluate and interpret th

172 e evidence of at least two distinct types of Kv channels in human pancreatic beta-cells and suggest t

173 te the functional properties of a variety of Kv channels and that, when defective, can cause congenit

174 elices of the voltage sensor domain (VSD) of Kv channels.

175 phen) in predicting the disease potential of Kv-channel variants, according to all tested metrics (ac

176 estigates the effect of phosphatidic acid on Kv channel gating.

177 rent amplitude and can have major effects on Kv channel modulation by vasoconstrictors.

178 induced two kinetically distinct effects on Kv channels: an increase in voltage sensitivity and a co

179 a peptide toxin known to act selectively on Kv channels.

180 This study suggests that more than one Kv channel subtype might contribute to the beta-cell del

181 are readily transferrable onto an orthologue Kv channel by transplanting the voltage-sensor's S3-S4 l

182 he generalization of this mechanism to other Kv channel subfamilies has remained uncertain and contro

183 m Listeria monocytogenes, differs from other Kv channels in that its voltage sensor contains only thr

184 nding residues are highly conserved in other Kv channels, explaining our finding that AVE0118 also bl

185 nt to the beta subunit binding site in other Kv channels.

186 bles alpha/beta subunit interaction in other Kv channels.

187 -type and C-type mechanisms present in other Kv channels.

188 gating modifier toxin binding sites on other Kv channels.

189 approach is likely also applicable to other Kv channels and thus of value for the additional charact

190 1) Similar to other Kv channels, KCNQ1 voltage sensor activation undergoes t

191 1 shares several general features with other Kv channels but also displays a fascinating flexibility

192 The voltage-dependent potassium (Kv) channel Kv1.3 regulates leukocyte proliferation, act

193 hylation of the voltage-dependent potassium (Kv) channel subunit Kcna2 promoter region and rescues Kc

194 radiation induces a voltage-gated potassium (Kv) channel activation and subsequently activates JNK si

195 at co-assemble with voltage-gated potassium (Kv) channel alpha subunits to alter their function.

196 ments in the intact voltage-gated potassium (Kv) channel are helical.

197 script for KCNE4, a voltage-gated potassium (Kv) channel beta subunit associated with human atrial fi

198 ociate and modulate voltage-gated potassium (Kv) channel function.

199 ever, we noted that voltage-gated potassium (Kv) channel genes are also targets of PcG regulation in

200 enopus spinal cord, voltage-gated potassium (Kv) channel genes display different expression patterns,

201 The voltage-gated potassium (Kv) channel Kv1.5 mediates the I(Kur) repolarizing curre

202 The voltage-gated potassium (Kv) channel subunit Kv1.1, encoded by the Kcna1 gene, is

203 Modulation of voltage-gated potassium (Kv) channel surface expression can profoundly affect neu

204 Kv2.1 is a voltage-gated potassium (Kv) channel that generates delayed rectifier currents in

205 KCNQ1 is a voltage-gated potassium (Kv) channel whose distinctive properties have provided n

206 pin ("paddle") of a voltage-gated potassium (Kv) channel, a critical region of the Kv voltage sensor,

207 ructures of KvAP, a voltage-gated potassium (Kv) channel, provide the first high-resolution experimen

208 In voltage-activated potassium (Kv) channels, basic residues in S4 enable the voltage-se

209 to those of the voltage-activated potassium (Kv) channels.

210 of voltage-gated sodium (Nav) and potassium (Kv) channels.

211 that the homologous voltage-gated potassium (Kv) channels also exhibit high temperature sensitivity c

212 axons, Kv1 (Shaker) voltage-gated potassium (Kv) channels are clustered in the juxtaparanodal regions

213 ning and closing of voltage-gated potassium (Kv) channels are controlled by several conserved Arg res

214 Voltage-gated potassium (Kv) channels are critical for neuronal excitability and

215 Voltage-gated potassium (Kv) channels are essential components of neuronal excita

216 Voltage-gated potassium (Kv) channels are homotetramers with each subunit constru

217 dence indicates the voltage-gated potassium (Kv) channels are involved in the regulation of microglia

218 he beta-subunits of voltage-gated potassium (Kv) channels are members of the aldo-keto reductase (AKR

219 Voltage-gated potassium (Kv) channels are modulated in distinct ways by members o

220 Voltage-gated potassium (Kv) channels are targets for therapeutic drugs in the tr

221 rphisms (nsSNPs) in voltage-gated potassium (Kv) channels cause diseases with potentially fatal conse

222 Voltage-gated potassium (Kv) channels comprise four transmembrane alpha subunits,

223 Voltage-gated potassium (Kv) channels comprise pore-forming alpha subunits and a

224 rrents generated by voltage-gated potassium (Kv) channels comprising alpha-subunits from the Kv1, 2,

225 The pore domain of voltage-gated potassium (Kv) channels consists of transmembrane helices S5 and S6

226 Voltage-gated potassium (Kv) channels display several types of inactivation proce

227 Voltage-gated potassium (Kv) channels enable potassium efflux and membrane repola

228 Voltage-gated potassium (Kv) channels from the Kv4, or Shal-related, gene family

229 n, the diversity of voltage-gated potassium (Kv) channels has been manifested in multiple ways.

230 Studies of voltage-gated potassium (Kv) channels have identified the S3b-S4 "paddle motif,"

231 rapidly activating voltage-gated potassium (Kv) channels in mammalian neurons.

232 s to produce native voltage-gated potassium (Kv) channels like cardiac I(to) and neuronal I(A) subtyp

233 Voltage-gated potassium (Kv) channels of the Kv4 subfamily associate with Kv chan

234 Voltage-gated potassium (Kv) channels sculpt neuronal excitability and play impor

235 or of Shaker family voltage-gated potassium (Kv) channels subjected to repetitive stimuli, with a par

236 rough modulation of voltage-gated potassium (Kv) channels that regulate temporal firing patterns.

237 targeting of Kv3.1 voltage-gated potassium (Kv) channels to adjust the input-output relationship.

238 g domains (VSDs) of voltage-gated potassium (Kv) channels undergo a series of conformational changes

239 Most voltage-gated potassium (Kv) channels undergo C-type inactivation during sustaine

240 cally by inhibiting voltage-gated potassium (Kv) channels, leading to enhanced release of acetylcholi

241 a common feature of voltage-gated potassium (Kv) channels.

242 Thus, ablation of the primary Kv channel of the beta-cell, Kv2.1, causes increased AP

243 e open and the closed state of a prokaryotic Kv channel (KvAP) in a lipid environment using Lanthanid

244 ubunits and two types of accessory proteins, Kv channel interacting proteins (KChIPs) and the dipepti

245 By contrast, delayed rectifier Kv channels (e.g., Kv1.1) and Nav channels (e.g., Nav1.2

246 ge-sensing L-type Cav channel and rectifying Kv channel predicted from skate (cartilaginous fish) amp

247 and accumulation in regions of up-regulated Kv channels both in vitro and in vivo demonstrate that H

248 However, the molecular mechanisms regulating Kv channel function in smooth muscle remain unclear.

249 alpha-subunits, and only members of the same Kv channel subfamily may co-assemble to form heterotetra

250 mbrane stretch suppresses an XE991-sensitive Kv channel current in patch-clamped vascular smooth musc

251 Out of seven Kv channels, Kv1.2 was found to be most sensitive to Sr(

252 In contrast, bTBuA blockade of a Shaker Kv channel that undergoes open-state P/C-type inactivati

253 imilar to the well-studied eukaryotic Shaker Kv channel: conformational changes occur within four vol

254 Furthermore, the inactivated Shaker Kv channel is readily blocked by bTBuA.

255 s of gating and ionic currents of the Shaker Kv channel expressed in Xenopus oocytes that F184 not on

256 can be readily incorporated into the Shaker Kv channel in place of methionine residues and modified

257 n the absence of the pore domain, the Shaker Kv channel was truncated after the fourth transmembrane

258 e able to site-specifically label the Shaker Kv channel with two different fluorophores simultaneousl

259 Unlike the Shaker Kv channel, KvAP possesses an inactivated state that is

260 nts from gating pore mutations in the Shaker Kv channel, we identified statistically highly significa

261 ein motion at specific regions of the Shaker Kv channel.

262 s of TRPV1 were transplanted into the Shaker Kv channel.

263 tion of the VS kinetics in Nav versus Shaker Kv channels is produced by the hydrophilicity of two "sp

264 opment of potent and highly subtype-specific Kv channel inhibitors.

265 However, the specific Kv channel subtypes responsible for repolarization in be

266 This mechanism by which specific Kv channel subunits can act in a dominant manner to impo

267 The regulatory beta subunit Kv channel interacting protein 2 was able to rescue the

268 in the generation of a variety of tetrameric Kv channels that exhibit distinct biophysical and bioche

269 We conclude that Kv channel expression and hence the intrinsic membrane p

270 While it is widely believed that Kv channels exist as heteromeric complexes in neurons, d

271 We conclude that Kv1.3 forms the Kv channel of the platelet and megakaryocyte, which sets

272 s served as the archetype pore domain in the Kv channel superfamily.

273 In NPY neurons from lean mice, the Kv channel blocker 4-aminopyridine inhibited leptin-indu

274 to determine the molecular identities of the Kv channel alpha-subunits that generate I(A) in cortical

275 tent with a closed-state conformation of the Kv channel in the plasma membrane.

276 ints, we determine and refine a model of the Kv channel VSD in the resting conformation.

277 Nonsubstituted DABCO did not block the Kv channels tested.

278 residues of the extracellular linkers of the Kv channels, which electrostatically affect the charged

279 These Kv channels undergo CSI by a mechanism that is still poo

280 aled that the transcripts encoding all three Kv channel alpha subunits, Kv1.4, Kv4.2, and Kv4.3, are

281 erivative probably exerts its action through Kv channels.

282 In contrast to Kv channels, little information is available on interact

283 active AKRs that impart redox sensitivity to Kv channels.

284 hat assigns a disease-causing probability to Kv-channel nsSNPs.

285 1-4 are integral components of native A-type Kv channel complexes and are likely to play a major role

286 inetics up to 6-fold faster than Shaker-type Kv channels.

287 KvSNP has ranked 172 uncharacterized Kv-channel nsSNPs by disease-causing probability.

288 ctions of 4-AP on the structurally unrelated Kv channels, dose- and voltage-dependent.

289 The widely used Kv channel blockers, including tetraethylammonium, alpha

290 his may allow MPS-1 to assemble with various Kv channels, presumably modifying the electrical propert

291 or the differential activation of Nav versus Kv channels, a fundamental prerequisite for the genesis

292 One gene regulated by H3K4me3 was Kv channel-interacting protein 2 (Kcnip2), which regulat

293 s are activated by hyperpolarization whereas Kv channels are activated by depolarization is not clear

294 s well understood, but it is unclear whether Kv channels control axon outgrowth by regulating Ca(2+)

295 uses a shift in the voltage range over which Kv channels open as well as an increase in the maximum o

296 channels of the Kv4 subfamily associate with Kv channel-interacting proteins (KChIPs), which leads to

297 sites of these proteins for interaction with Kv channel proteins.

298 subunit that possesses kinase activity, with Kv channels.

299 ort direct interactions of each peptide with Kv channels.

300 v1 gating and uncover key relationships with Kv channels.