ライフサイエンスコーパス: GlyR

1 GlyR activation accounted for 15% of interneuron IPSC am

2 GlyR are found in the spinal cord and brain stem, and mo

3 GlyR are involved in motor coordination, respiratory rhy

4 GlyR Cl(-) channels are expressed on ASM and regulate sm

5 GlyR-Ab was detected in one patient with TM.

6 GlyRs containing the alpha2 subunit are highly expressed

7 GlyRs expressed by hECNs were activated by glycine with

8 GlyRs not only regulate the excitability of motor and af

9 GlyRs of CGCs support a biphasic modulatory mechanism wh

10 VGKC-complex, LGI1, CASPR2 and contactin-2, GlyR, D1R, D2R, AMPAR, GABA(B)R and glutamic acid decarb

11 ta GlyR, which suggests that the alphaChb+a- GlyR reconstitutes structural components and recapitulat

12 he beta+/alpha- interface in the alphaChb+a- GlyR were also found in the heteromeric alphabeta GlyR,

13 interfaces in a homomeric GlyR (alphaChb+a- GlyR), we were able to functionally characterize the alp

14 finite CJD had NSA-abs, including NMDAR-abs, GlyR-abs, LGI1-abs, or CASPR2-abs.

15 as inhibitory receptors, presynaptic-acting GlyRs (preGlyRs) can also facilitate glutamate release u

16 and other endogenous molecules can activate GlyRs.

17 Under these conditions tonically active GlyRs become a part of neural signalling machinery allow

18 e set of properties that cumulatively affect GlyR functionality and thus might explain the neuropatho

19 ithin the GlyRalpha1 TM3-4 loop that affects GlyR physiology without altering protein expression at t

20 After GlyR beta-loop binding, the stability of the E domain in

21 the only antagonist, strychnine, blocks all GlyR subunit combinations.

22 lass of tricyclic sulfonamides as allosteric GlyR potentiators.

23 subunit interfaces from the homomeric alpha GlyR, subunit interfaces from the heteromeric alphabeta

24 to the alpha+/alpha- interface in the alpha GlyR.

25 al modification could indeed modulate alpha1 GlyR behavior.

26 also replaced the M3-M4 linker of the alpha1 GlyR with much shorter peptides and found that none of t

27 icroscopy structures of the zebrafish alpha1 GlyR with strychnine, glycine, or glycine and ivermectin

28 es in mice bearing point mutations in alpha1 GlyRs that are responsible for a hereditary startle-hype

29 stry indicated that the expression of alpha1 GlyRs in nervous tissues and spinal cord neurons (SCNs)

30 Thus, presynaptic alpha1 GlyRs emerge as a potential therapeutic target for domin

31 ird transmembrane helix of the alpha1/alpha3 GlyR.

32 hird transmembrane domain of purified alpha3 GlyR.

33 d in HEK 293T cells expressing alpha1/alpha3 GlyRs.

34 e conclude that functional alpha2 and alpha3 GlyRs are present in various regions of the forebrain an

35 pressing human alpha1, rat alpha2 and alpha3 GlyRs.

36 ous regions of the forebrain and that alpha3 GlyRs specifically participate in tonic inhibition in th

37 Our findings suggest that the alpha3 GlyRs mediate glycinergic cannabinoid-induced suppressio

38 effect is absent in mice lacking the alpha3 GlyRs.

39 with cannabinoid potentiation of the alpha3 GlyRs.

40 d inhibition was observed for P36A at alpha7-GlyR.

41 ne domain of alpha1 glycine receptor (alpha7-GlyR).

42 it interfaces from the heteromeric alphabeta GlyR have not been characterized unambiguously because o

43 were also found in the heteromeric alphabeta GlyR, which suggests that the alphaChb+a- GlyR reconstit

44 lpha- interface in the heteromeric alphabeta GlyR.

45 e to functionally characterize the alphabeta GlyR beta+/alpha- interfaces.

46 Here, we analyzed GlyR currents in several regions of the adolescent mouse

47 MDAR 13/48 (27%), VGKC-complex 7/48(15%) and GlyR 1/48(2%).

48 Ion selectivity of CFTR, ANO1 and GlyR is critically affected by the electric permittivity

49 ermeability (P HC O3/ Cl ) of CFTR, ANO1 and GlyR.

50 ming the previous result, two had CASPR2 and GlyR antibodies and one had CASPR2 and NMDAR antibodies;

51 aneous glycinergic postsynaptic currents and GlyR immunolabeling revealed that A8 cells express GlyRs

52 The GABAAR and GlyR pore blocker picrotoxin prevented desensitization,

53 Molecular interaction between Gbetagamma and GlyR could be used as a target for pharmacological modif

54 tive relationship exists between insulin and GlyR, because insulin enhances the glycine-activated cur

55 the presence of antibodies to AQP4, MOG, and GlyR using cell-based assays.

56 MOG in 10 patients, AQP4 in 6 patients, and GlyR in 7 patients (concurrent with MOG in 3 and concurr

57 dicating that the crosstalk between KARs and GlyRs relies on the SUMOylation status of PKC.

58 In Glra2(-/Y) animals, GlyR tonic currents were preserved; however, the amplitu

59 ar clustering and pharmacological profile as GlyRs on MNTB principal cells.

60 ining synaptic heteromeric alpha1(Q177K)beta GlyRs had decreased current amplitudes with significantl

61 in synaptic integration of alpha1(Q177K)beta GlyRs.

62 and capsaicin, delays the maturation of both GlyR subunits and glycinergic inhibition, maintaining do

63 as hyperekplexia, which can be triggered by GlyR gain-of-function mutations.

64 own about the molecular basis of cannabinoid-GlyR interactions.

65 r membrane cholesterol regulates cannabinoid-GlyR interaction remains unknown.

66 cholesterol is critical for the cannabinoid-GlyR interaction in the cell membrane.

67 ctivation of kainate receptors (KARs) causes GlyR endocytosis in a calcium- and protein kinase C (PKC

68 demonstrated that the T258F mutation in CGC GlyRs modifies single-cell and neural network signalling

69 In contrast, GlyR IPSC and NMDAR-EPSC decay times were unchanged.

70 These findings are the first to define GlyR subunit-specific control of visual function and Gly

71 Here we show two functionally different GlyRs populations in the rat medial nucleus of trapezoid

72 R beta+/alpha- interface, which could direct GlyR beta+/alpha- interface-specific drug design, but al

73 cuss recently emerging functions of distinct GlyR isoforms.

74 The endogenous GlyR activity was strongly enhanced by inhibition of the

75 To examine GlyRs in ALS motoneurons, we bred G93A-SOD1 mice to Hb9-

76 mmunolabeling revealed that A8 cells express GlyRs containing the alpha2 subunit.

77 amp recordings from heterologously expressed GlyRs characterised in detail the functional consequence

78 We describe an extracellular GlyR alpha1 subunit mutation (Q177K) in a novel mouse st

79 tonic conductance mediated by extrasynaptic GlyRs, which dominates DR inhibition.

80 These findings identify extrasynaptic GlyRs as critical regulators of DR excitability and a no

81 Finally, GlyR tone varied inversely with extracellular fluid toni

82 e amide moiety of asparagine was crucial for GlyR activation.

83 op D/beta2-3 is an important determinant for GlyR trafficking and functionality, whereas alterations

84 SUMOylation-dependent regulatory pathway for GlyR endocytosis, which may have important physiological

85 -complex, one of which was also positive for GlyR antibodies.

86 xcitability associated with gain-of-function GlyR expression in glutamatergic neurons resulted in rec

87 network excitability due to gain-of-function GlyR expression in parvalbumin-positive interneurons res

88 del, targeted expression of gain-of-function GlyR in terminals of glutamatergic cells or in parvalbum

89 here are at least two subtypes of functional GlyRs in the PFC neurons of young rats, and their physio

90 f the neurotransmitter receptor for glycine (GlyR) that is found in hippocampectomies from patients w

91 sites, thereby anchoring inhibitory glycine (GlyR) and subsets of gamma-aminobutyric acid type A (GAB

92 n dynamics and synaptic trapping of glycine (GlyR) but not GABAA receptors.

93 tif in the large intracellular loop of GlyR (GlyR-IL), was able to inhibit the ethanol-elicited poten

94 controls with multiple sclerosis, 5 (8%) had GlyR antibodies.

95 Hence, GlyRs constitute promising targets for the development o

96 -resistant subtype the alphabeta heteromeric GlyR, was also present.

97 7-fold faster for homomeric and heteromeric GlyRs, respectively.

98 synaptic transmission), because heteromeric GlyRs are less affected by many startle mutations than h

99 ptic currents mediated by mutant heteromeric GlyRs is expected to reduce charge transfer at the synap

100 reduced only marginally that of heteromeric GlyRs (0.96; cf. 0.99 for wild type).

101 GlyRs, rather than postsynaptic heteromeric GlyRs (which mediate glycinergic synaptic transmission),

102 GlyRs (rather than postsynaptic heteromeric GlyRs), because homomeric GlyRs are more sensitive to lo

103 Recombinant heteromeric GlyRs were less impaired than homomers by this mutation

104 synaptic, presumably alphabeta heteromeric, GlyRs only after priming with PGE2.

105 Ligand-gated heteropentameric GlyRs form chloride ion channels that contain the alpha(

106 uting beta+/alpha- interfaces in a homomeric GlyR (alphaChb+a- GlyR), we were able to functionally ch

107 ocumented modulatory activities at homomeric GlyR-alpha1 and -alpha3 and built a database named GRALL

108 naptic heteromeric GlyRs), because homomeric GlyRs are more sensitive to loss-of-function mutations t

109 they are mediated by extrasynaptic homomeric GlyRs.

110 single-channel open probability of homomeric GlyRs (to 0.16; cf. 0.99 for wild type) but reduced only

111 ion in the function of presynaptic homomeric GlyRs (rather than postsynaptic heteromeric GlyRs), beca

112 eptors responsible are presynaptic homomeric GlyRs, rather than postsynaptic heteromeric GlyRs (which

113 However, GlyR activation was found to account for <3% of the PC i

114 Similar changes in GlyR cluster properties were found in spinal cultures fr

115 blocking action on the effect of ethanol in GlyR.

116 mutation makes significant modifications in GlyR response to endogenous agonists.

117 tion is likely to affect the opening step in GlyR activation.

118 en the equivalent positions were examined in GlyRs, the M2 S18'I substitution significantly altered t

119 RNA-seq indicates GlyRs are likely to be composed of alpha2 and beta subun

120 on of PKC is involved in the kainate-induced GlyR endocytosis and thus plays an important role in the

121 Although an inhibitory GlyR tone is widely observed in the brain, it remains un

122 s structural element is vital for inhibitory GlyR function, signaling, and synaptic clustering.SIGNIF

123 This inhibitory GlyR tone was eliminated by pharmacological blockade of

124 Inhibitory GlyRs are also found throughout the brain, where GlyR al

125 of chronic pain and other diseases involving GlyR dysfunction.

126 ons in the adult nAc expressed functional KI GlyRs that were rather insensitive to ethanol when compa

127 resent Cryo-EM structures of the full-length GlyR protein complex reconstituted into lipid nanodiscs

128 This form of LTP (GlyR LTP) results from an increase in the number and/or

129 diverse compounds that are able to modulate GlyR function both positively and negatively have been r

130 Increased expression of the mutant GlyR alpha1(Q177K) subunit in vivo was not sufficient to

131 eactivation of the agonist current at mutant GlyRs.

132 We expressed mutant GlyRs in HEK293T cells, and electrophysiological analyse

133 wever, both heteromeric and homomeric mutant GlyRs became less sensitive to the neurotransmitter glyc

134 yRbeta that coimmunoprecipitates with native GlyRs from brainstem extracts.

135 A nonfunctional GlyR subunit, truncated at the intracellular TM3-4 loop

136 NHE3), an electroneutral ion channel, and of GlyR, an inactive Cl(-) channel, do not cause CFAs, demo

137 insights into the molecular architecture of GlyR, several mechanistic questions pertaining to channe

138 ith the anion selectivity and conductance of GlyR.

139 CGRP(+) and IB4(+) terminals were devoid of GlyR alpha1-subunit and gephyrin.

140 esterol regulates cannabinoid enhancement of GlyR function through both direct and indirect mechanism

141 A fragment of GlyR-IL without the basic amino acids did not interact w

142 NA expression levels and immunoreactivity of GlyR subunits, as well as ethanol sensitivity.

143 f a motif in the large intracellular loop of GlyR (GlyR-IL), was able to inhibit the ethanol-elicited

144 RQH(C7), can inhibit ethanol potentiation of GlyR currents.

145 hus establish that selective potentiation of GlyR function is a promising strategy against chronic in

146 dicate that ethanol mediated potentiation of GlyR is in part by Gbetagamma activation.

147 betagamma or inhibit ethanol potentiation of GlyR.

148 We investigated the presence of GlyR subunits in nAc and their modulation by ethanol in

149 and single-channel conductance properties of GlyR in a lipid environment.

150 We conclude that a proportion of GlyR alpha1 mutants can be transported to the plasma mem

151 erstanding of the function and regulation of GlyR.

152 ould contribute to understanding the role of GlyR alpha1 in the reward system and might help to devel

153 of GlyR beta-subunit produces segregation of GlyR subtypes involved in two different mechanisms of mo

154 ining region alters the anion selectivity of GlyR.

155 The significance of GlyR antibodies in the setting of ON is unclear and dese

156 e results suggest that specific targeting of GlyR beta-subunit produces segregation of GlyR subtypes

157 Our results show ubiquitous expression of GlyRs that mediate large-amplitude currents in response

158 While the prevalent adult forms of GlyRs are heteromers, previous reports suggested functio

159 have shown that the functional inhibition of GlyRs containing the alpha3 subunit is a pivotal mechani

160 found that a lack of synaptic integration of GlyRs, together with disrupted receptor function, is res

161 and they form the predominant population of GlyRs in the postnatal and adult human brain, brainstem

162 subunit is important for the potentiation of GlyRs in the adult brain and this might result in reduce

163 Here, we investigated the presence of GlyRs in accumbal dopamine receptor medium spiny neurons

164 we initially tested functional properties of GlyRs, carrying the yet understudied T258F gain-of-funct

165 cumulating evidence of the important role of GlyRs in cerebellar structures in development of neural

166 , we sought to better understand the role of GlyRs in the facilitation of excitatory neurotransmitter

167 localization mechanism for a minor subset of GlyRs.

168 ty were observed across multiple subunits of GlyRs and GABA(A)Rs.

169 The effects of TSP-1 on GlyRs were dependent on the activation of excitatory rec

170 and impaired hyperpolarizing GABAAR- and/or GlyR-mediated currents have been implicated in epilepsy,

171 isolated ON had antibodies to MOG, AQP4, or GlyR.

172 o human Cys-loop receptors such as GABAAR or GlyR.

173 For example, the determination of pentameric GlyR structures bound to glycine and strychnine have con

174 rons by viral miRNA expression, postsynaptic GlyR clusters were significantly reduced in both size an

175 onstrated a decrease of surface postsynaptic GlyR on G93A-SOD1 motoneurons.

176 enous and endogenous cannabinoids potentiate GlyRs via a hydrogen bonding-like interaction.

177 CBD selectively rescues impaired presynaptic GlyR activity and diminished glycine release in the brai

178 ittle is known about the role of presynaptic GlyRs, likely alpha homomers, in diseases.

179 than are heteromers, suggesting presynaptic GlyRs as a primary target.

180 a indicate disturbances in glycine receptor (GlyR) alpha1 biogenesis.

181 ive mutations in the human glycine receptor (GlyR) alpha1 gene (GLRA1) are the major cause of this di

182 (GLRA1) of the inhibitory glycine receptor (GlyR) and the cognate presynaptic glycine transporter (S

183 A) receptor (GABA(A)R) and glycine receptor (GlyR) are described.

184 The glycine receptor (GlyR) exists either in homomeric alpha or heteromeric al

185 subunits of the inhibitory glycine receptor (GlyR) in the reward system, specifically in medium spiny

186 The glycine receptor (GlyR) is a pentameric ligand-gated ion channel (pLGIC) m

187 The strychnine-sensitive glycine receptor (GlyR) mediates inhibitory synaptic transmission in the s

188 ovide inhibitory input via glycine receptor (GlyR) subunit alpha1 to OFF cone bipolar cells and to ON

189 In contrast, the role of glycine receptor (GlyR) subunit-specific inhibition is less clear because

190 is caused by mutations in glycine receptor (GlyR) subunits or in other proteins associated with glyc

191 encode the alpha1 and beta glycine receptor (GlyR) subunits, are the major cause.

192 ock-in (KI) mouse having a glycine receptor (GlyR) with phenotypical silent mutations at KK385/386AA,

193 such as CFTR, ANO1 and the glycine receptor (GlyR), by changing pore size.

194 the alpha1 subunit of the glycine receptor (GlyR), cause the startle disease/hyperekplexia channelop

195 in-1(ANO1/TMEM16A) and the glycine receptor (GlyR), revealed that the ion selectivity of anion channe

196 hances the activity of the glycine receptor (GlyR), thus enhancing inhibitory neurotransmission, lead

197 tate receptor (NMDAR), the glycine receptor (GlyR), voltage-gated potassium channel (VGKC)-complex an

198 ncipal output neurons, via glycine receptor (GlyR)-enriched synapses, virtually devoid of the main GA

199 R and the homomeric alpha1 glycine receptor (GlyR).

200 Glycine receptors (GlyR) are inhibitory Cys-loop ion channels that contribu

201 Strychnine-sensitive glycine receptors (GlyR) play a major role in the excitability of CNS neuro

202 that ethanol can modulate glycine receptors (GlyR), in part, through Gbetagamma interaction with basi

203 islet beta-cells express glycine receptors (GlyR), notably the GlyRalpha1 subunit, and the glycine t

204 esser extent, by synaptic glycine receptors (GlyR).

205 lation of homomeric human glycine receptors (GlyRs) and nematode glutamate-gated chloride channels (G

206 Glycine receptors (GlyRs) are anion-permeable pentameric ligand-gated ion c

207 Inhibitory glycine receptors (GlyRs) are composed of homologous alpha- (alpha1-4) and

208 Glycine receptors (GlyRs) are found in most areas of the brain, and their d

209 Glycine receptors (GlyRs) are inhibitory ligand-gated ion channels expresse

210 us studies suggested that glycine receptors (GlyRs) are involved in the regulation of accumbal dopami

211 Glycine receptors (GlyRs) are key players in mediating fast inhibitory neur

212 Glycine receptors (GlyRs) are ligand-gated chloride channels that mediate i

213 Glycine receptors (GlyRs) are major mediators of inhibition in the spinal c

214 Glycine receptors (GlyRs) are potentiated by ethanol and they have been imp

215 Glycine receptors (GlyRs) are structurally related to GABAA receptors and h

216 Glycine receptors (GlyRs) are the major mediators of fast synaptic inhibiti

217 Although postsynaptic glycine receptors (GlyRs) as alphabeta heteromers attract considerable rese

218 eceptors (GABA(B)Rs), and glycine receptors (GlyRs) can be identified in patients and are associated

219 activation of heteromeric glycine receptors (GlyRs) composed primarily of alpha1 and beta subunits.

220 The properties of glycine receptors (GlyRs) depend upon their subunit composition.

221 and strychnine-sensitive glycine receptors (GlyRs) expressed by excitatory cortical neurons derived

222 ing defects of inhibitory glycine receptors (GlyRs) have been linked to human hyperekplexia/startle d

223 Functional glycine receptors (GlyRs) have been repeatedly detected in cerebellar granu

224 easing that of inhibitory glycine receptors (GlyRs) in synapses.

225 Glycine receptors (GlyRs) mediate fast inhibitory neurotransmission in the

226 Glycine receptors (GlyRs) mediate inhibitory neurotransmission in spinal co

227 Strychnine-sensitive glycine receptors (GlyRs) mediate synaptic inhibition in the spinal cord, b

228 cellular loop 2 region of glycine receptors (GlyRs) or gamma-aminobutyric acid type A receptors (GABA

229 regulated endocytosis of glycine receptors (GlyRs) play a critical function in balancing neuronal ex

230 receptors (GABA(A)Rs) and glycine receptors (GlyRs) play a role in control of dorsal horn neuron exci

231 of a specific subtype of glycine receptors (GlyRs) that contain alpha3 subunits.

232 nnabinoids can potentiate glycine receptors (GlyRs), an important target for nociceptive regulation a

233 -loop GABAA (GABAARs) and glycine receptors (GlyRs), which both mediate fast inhibitory synaptic tran

234 ) permeable extrasynaptic glycine receptors (GlyRs).

235 d receptors (GABAARs) and glycine receptors (GlyRs).

236 ng by activating neuronal glycine receptors (GlyRs).

237 ntly mature alpha(1)/beta glycine receptors (GlyRs).

238 n allosterically modulate glycine receptors (GlyRs).

239 rtle disease by targeting glycine receptors (GlyRs).

240 troducing the N46K mutation into recombinant GlyR alpha1 homomeric receptors, expressed in HEK cells,

241 sitization decay time constants, and reduced GlyR clustering and synaptic strength.

242 C (PKC)-dependent manner, leading to reduced GlyR-mediated synaptic activity in cultured spinal cord

243 ), a nonpsychoactive cannabinoid, can rescue GlyR functional deficiency and exaggerated acoustic and

244 6 rat hippocampal slices, we detected robust GlyR activity as a tonic current and as single-channel e

245 Surprisingly, small GlyR clusters were also found at PC synapses onto princi

246 ptic currents (IPSCs) and induce spontaneous GlyR activation.

247 the oligomerization, folding and stability, GlyR beta-loop binding, and phosphorylation of three gep

248 d synaptic clustering.SIGNIFICANCE STATEMENT GlyR dysfunction underlies neuromotor deficits in startl

249 MOG) or the glycine receptor alpha1 subunit (GlyR) is unclear.

250 es of the distribution of GABA(A)R-subunits, GlyR alpha1-subunit and their anchoring protein, gephyri

251 ng and/or cytoskeletal anchoring of synaptic GlyRs.

252 We found that GlyR alpha1 subunits are expressed at higher levels than

253 Our study shows that GlyR alpha1 in nAc is a new target for development of no

254 It was suggested that GlyR alpha1 subunits regulate nAc excitability and ethan

255 pses on dorsal horn neurons, suggesting that GlyR LTP is triggered during inflammatory peripheral inj

256 We found that GlyRs of CGCs deliver a significant amount of tonic inhi

257 Here, we show that GlyRs are closely associated with cholesterol/caveolin-r

258 The GlyR activation is critical for the control of key neuro

259 The GlyR beta8-beta9 loop is therefore an essential regulato

260 uctural and functional information about the GlyR beta+/alpha- interface, which could direct GlyR bet

261 main in Geph-C3 is less stable and binds the GlyR beta-loop with one order of magnitude lower affinit

262 tracellular domain (ICD), which decrease the GlyR-associated currents and enhance neuronal excitabili

263 ion of the X-linked gene GLRA2, encoding the GlyR alpha2 subunit, in a boy with autism.

264 disruption reveals an important role for the GlyR alpha1 subunit beta8-beta9 loop in initiating rearr

265 These structures illuminate the GlyR mechanism and define a rubric to interpret structur

266 vestigated the N46K missense mutation in the GlyR alpha1 subunit gene found in the ethylnitrosourea (

267 e (N) with lysine (K), at position 46 in the GlyR alpha1 subunit induced hyperekplexia following a re

268 Recordings from mice deficient in the GlyR alpha3 subunit (Glra3(-/-)) revealed a lack of toni

269 rst evidence to link a molecular site in the GlyR with the sedative effects produced by intoxicating

270 zed in the large extracellular domain of the GlyR alpha1 have reduced cell surface expression with a

271 in the extracellular beta8-beta9 loop of the GlyR alpha1 subunit.

272 R389-390AA) in the intracellular loop of the GlyR alpha2 subunit which results in a heteromeric alpha

273 between transmembrane regions 3 and 4 of the GlyR alpha3 subunit.

274 frameshift within the coding regions of the GlyR beta subunit.

275 The relevance of the GlyR function is further highlighted by the presence of

276 4, inhibited the ethanol potentiation of the GlyR in both evoked currents and synaptic transmission i

277 Also, the potentiation of the GlyR-mediated tonic current by ethanol suggests that the

278 We found that the GlyR alpha1 subunit is preferentially expressed in nAc a

279 rfered with the binding of Gbetagamma to the GlyR and consequently inhibited the ethanol-induced pote

280 ticity of glycinergic synapses by tuning the GlyR diffusion trap.

281 By contrast, we report that unusually the GlyR antagonist strychnine reveals a large tonic conduct

282 glycine was blocked by pretreatment with the GlyR Cl(-) channel antagonist strychnine.

283 The GlyRs expressed as alpha1 homomers either in HEK-293 cel

284 ne the colocalization of GlyRbeta with these GlyR subunits in the mouse retina, >90% of the GlyRalpha

285 Hereditary mutations to GlyRs can lead to the rare, but potentially fatal, neuro

286 Next, we clarified the role of tonic GlyR conductance in neuronal signalling generated by sin

287 ubunit (Glra3(-/-)) revealed a lack of tonic GlyR currents in the striatum and the PFC.

288 ments within the extracellular-transmembrane GlyR interface and that this structural element is vital

289 als global conformational changes underlying GlyR channel gating and modulation.

290 s are also found throughout the brain, where GlyR alpha2 and alpha3 subunit expression exceeds that o

291 mutation represents a new mechanism by which GlyR dysfunction induces startle disease.

292 This represents a new mechanism by which GlyR dysfunction induces startle disease.

293 yperekplexia disease and other diseases with GlyR deficiency.

294 Gbetagamma interaction with GlyR is an important determinant in ethanol potentiation

295 0 [range, 0-14]; P = .08), and patients with GlyR antibodies alone (n = 3) (median visual score, 0 [r

296 Among the 3 patients with GlyR antibodies alone, 1 patient had monophasic ON, 1 ha

297 The 3 patients with GlyR antibodies concurrent with MOG antibodies had recur

298 = .10).The median age of the 7 patients with GlyR antibodies was 27 (range, 11-38) years; 5 (71%) of

299 ical profile that favors an interaction with GlyRs that have been primed by peripheral inflammation.

300 insensitive to ethanol when compared with WT GlyRs.