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1 e genes such as acetylcholinesterase and the GABA receptor.
2 e action of inhibitory steroids on the rho 1 GABA receptor.
3 mily that depend on cholesterol, such as the GABA receptor.
4 re noncompetitive antagonists (NCAs) for the GABA receptor.
5 nit, can impart picrotoxin resistance to the GABA receptor.
6 ibitory GABA receptor and a novel excitatory GABA receptor.
7 s-talk between these two distinct classes of GABA receptor.
8 tions between these two different classes of GABA receptor.
9  (i.e. fiprole), high-affinity probe for the GABA receptor.
10  release is necessary for maintaining axonal GABA receptors.
11 rophysiological activity of the transplanted GABA receptors.
12 oth small and large cholangiocytes expressed GABA receptors.
13  response to voltage pulses in cells lacking GABA receptors.
14 e VMH can be reversed by local modulation of GABA receptors.
15 otoxin and thus not mediated by conventional GABA receptors.
16 or rho subunit-containing GABA(C) over other GABA receptors.
17 gy of native, bicuculline-insensitive insect GABA receptors.
18 ases of resistance to insecticides acting on GABA receptors.
19 gs inhibit neural activity through targeting GABA receptors.
20 tor (CB1R) but not metabotropic glutamate or GABA receptors.
21 receptors, and bicuculline, an antagonist of GABA receptors.
22  the resistant to dieldrin (RDL) category of GABA receptors.
23  screen, the proteins of which interact with GABA receptors.
24  and by blockers of ionotropic glutamate and GABA receptors.
25 xin-sensitive nAChRs or picrotoxin-sensitive GABA receptors.
26  by picrotoxin-sensitive chloride conducting GABA receptors.
27 tes expressing recombinant alpha1beta2gamma2 GABA receptors.
28 inals where they are apposed by postsynaptic GABA receptors.
29 picrotoxin, indicating spontaneously opening GABA receptors.
30 M GABA-induced currents in alpha1beta2gamma2 GABA receptors.
31 gher concentrations, the steroid also blocks GABA receptors.
32  impairing the inhibitory action of neuronal GABA receptors.
33 in and hot plate tests that are dependent on GABA receptors.
34 ion of previously uncharacterized ionotropic GABA receptors.
35 marily mediated by chloride-permeable Type A GABA receptors.
36 e during simultaneous activation of NMDA and GABA receptors.
37 t-term plasticity and the configuration with GABA receptors.
38 e propensity of caged GABAs to interact with GABA receptors.
39 ration by LS/MS and its bioactivity on human GABA receptors.
40 drin), gene encoding a subunit of inhibitory GABA receptors.
41 due to clathrin-dependent internalization of GABA receptors.
42 ty of granule cells by acting on presynaptic GABA receptors.
43 nists of ionotropic gamma-aminobutyric acid (GABA) receptors.
44 ticide targeting on gamma-aminobytyric acid (GABA) receptors.
45 Aergic neurons or disruption of metabotropic GABA receptor 1 and 2 (GABA(B)R1/2) signaling in astrocy
46 feedback pathway is mediated by metabotropic GABA receptors.(1,2,5,6-Tetrahydropyridine-4-yl)-methylp
47 t microinjection of gamma-aminobutyric acid (GABA) receptor A antagonist substance, bicuculline, into
48 identified M1 residues to inhibit the UNC-49 GABA receptor, a homomeric GABA receptor from Caenorhabd
49 ucing intrastriatal gamma-aminobutyric acid (GABA) receptor-A inhibition synchronizes striatal dynami
50            We saw no evidence for changes in GABA receptor abundance or the overall number of glutama
51 oversy surrounding the role of Loop F during GABA receptor activation.
52 ation with propofol and other compounds with GABA receptor activity are frequently used in patients w
53 ic synaptic transmission but does not affect GABA receptor activity in cultured neurons.
54 ntrast, gaboxadol, a selective extrasynaptic GABA receptor agonist and late-stage investigational tre
55 nal nicotinic antagonist mecamylamine or the GABA receptor agonist muscimol, agents that reduce activ
56 isting of approximately 150-200 muscimols (a GABA receptor agonist) covalently joined to the qdot via
57 duration of sleep when the animals receive a GABA receptor agonist.
58 thalamus reproduce limbic cortex injury, and GABA-receptor agonist injections into anterior thalamus
59 b) reversible inactivation of the dlCPu with GABA receptor agonists (baclofen and muscimol) immediate
60                     To test this hypothesis, GABA receptor agonists (baclofen/muscimol) were microinj
61 ext, we reversibly inactivated the vSub with GABA receptor agonists (muscimol+baclofen) before the co
62                               In contrast to GABA receptor agonists which induce sleep by generalized
63 gents that influenced (lidocaine) or spared (GABA receptor agonists) fibers of passage blocked cocain
64  rescued by suppressing GABA reuptake and by GABA receptor agonists.
65 ex in adult rodents that can be prevented by GABA-receptor agonists and antipsychotics such as halope
66 arrangement of glutamate, acetylcholine, and GABA receptors along the dendrite that matched the previ
67    Activation of ionotropic glutamate and/or GABA receptors along the GnRH neuron projection is capab
68 acetylcholine, serotonin Type 3, glycine and GABA receptors) along with the crystal structure of the
69     Candidate gene GABRA2, which encodes the GABA receptor alpha2 subunit, was evaluated independentl
70 e that blockade of the alpha5 subtype of the GABA receptor (alpha5-GABA(A)Rs) leads to behavioral phe
71 s GABA neuron identity, a classic inhibitory GABA receptor and a novel excitatory GABA receptor.
72 ain receptors involved in chemotaxis, namely GABA receptor and EGFR.
73 acting as allosteric inhibitors of the rho 1 GABA receptor and support the hypothesis that divergent
74                        However, ChIs express GABA receptors and are therefore candidates for potentia
75 n-presenting cells (APCs) express functional GABA receptors and respond electrophysiologically to GAB
76 pport for direct inhibition of DA release by GABA receptors and reveal that striatal GABA operates a
77          Combination of the blockade of mNTS GABA receptors and spinal iGLURs also abolished PVN-indu
78         Also, transcription of mRNA for both GABA receptors and the GABA reuptake transporter was aff
79 underlying mechanisms, including the role of GABA receptors and their link to synaptic adhesion molec
80 tion, suggesting potential links between the GABA receptors and these conditions.
81 ors, transporters, and interacting proteins, GABA receptors and transporters, synaptic-related marker
82 ogeneity within the gamma-aminobutyric acid (GABA) receptor and transporter families, a detailed insi
83 did not lead to the expression of functional GABA receptors, and injected oocytes failed to generate
84 can be attributed to their effects at insect GABA receptors, and the presence of a Val at the 2' posi
85                          Activation of these GABA receptor anion channels can depolarize horizontal c
86 y to VIP(-/-) SCN cultures during continuous GABA receptor antagonism but not during G(i/o) blockade.
87     In contrast to the relative inability of GABA receptor antagonism in both sites to alter 2-deoxy-
88                    A site-specific effect of GABA receptor antagonism was observed for deprivation-in
89 e further analyzed the response of NS to the GABA receptor antagonist bicuculline.
90 the behavior of larvae either treated with a GABA receptor antagonist or carrying a mutation that eli
91 OB interneurons or locally introducing DA or GABA receptor antagonists alters kinship preference.
92 ppressed transient output from bipolar cells.GABA receptor antagonists blocked the effect of ATPA.
93 diated inhibitory synaptic transmission, and GABA receptor antagonists did not block leptin-mediated
94                                Glutamate and GABA receptor antagonists did not block this effect.
95 nses and reduces the disinhibitory effect of GABA receptor antagonists on PNs.
96            In addition, focal application of GABA receptor antagonists to sensory ganglia triggered o
97 e presence of either gabazine or picrotoxin (GABA receptor antagonists), many action potentials appea
98  in the presence of ionotropic glutamate and GABA receptor antagonists.
99 ceptors, with effects prevented by selective GABA receptor antagonists.
100 g persisted in the presence of glutamate and GABA receptor antagonists.
101 nce of muscarinic, ionotropic glutamate, and GABA receptors antagonists were also reduced by NRG 1bet
102                                              GABA receptor are involved in a number of complex disord
103                                   Ionotropic GABA receptors are abundant in both vertebrate and inver
104 ficance and mechanism(s) of the UV effect on GABA receptors are discussed.
105 M1) and pre-M1 of alpha and beta subunits in GABA receptors are essential for positive modulation of
106                   These results suggest that GABA receptors are present and functional in the periphe
107 nts, indicating that a subset of presynaptic GABA receptors are tonically active.
108                                Evidence that GABA receptors are transported to peripheral terminals a
109                                   Ionotropic GABA receptors are widely distributed throughout the ver
110 ctrophysiological properties of human native GABA receptors as a consequence of AD.
111  signaling by using a mimetic peptide of the GABA receptor associated protein-interacting domain of G
112  proteins N-ethylmaleimide-sensitive factor, GABA receptor-associated protein (GABARAP), and glutamat
113 ric binder of GABA receptors, GABARAPL1, the GABA receptor-associated protein, and SLC6A11, a postsyn
114 ated protein-1 light chain 3) family and the GABA receptor-associated proteins.
115     Lower levels of gamma-aminobutyric acid (GABA) receptor-associated protein (GABARAP) gene express
116                  It is well established that GABA receptors at the central terminals of primary affer
117 , widely diverse NCA structures fit the same GABA receptor beta subunit site with important implicati
118  procedures yield a good model of the insect GABA receptor binding site and the location of agonists
119 ns of 3 alpha 5 beta PC, we characterize the GABA receptor block in some detail.
120 tiation and NMDA receptor block and diminish GABA receptor block may lead to a clinically useful neur
121 ated the increase in 5-HT efflux produced by GABA receptor blockade in the DRN.
122 VLM can be activated in the presence of RVLM GABA receptor blockade, but sympathoinhibitory influence
123 ke propagation becomes stereotyped following GABA receptor blockade.
124     Depression was prevented by MOR- but not GABA-receptor blockade.
125 rainstem slice with ionotropic glutamate and GABA receptors blocked, whole-cell patch-clamp recording
126     Here we show that the application of the GABA receptor blocker picrotoxin unmasks a robust excita
127 uropil or of interneurons in the presence of GABA receptor blockers caused no alteration in granule c
128         Indeed, we found that application of GABA receptor blockers increased the sensitivity of most
129                           In the presence of GABA receptor blockers, residual taurine currents averag
130 und effects on the EPSCs were insensitive to GABA receptor blockers.
131 dback is mediated by at least three types of GABA receptor, both metabotropic and ionotropic.In conju
132 icotinic receptors (nAChRs) and also express GABA receptors, but they have not been eliminated as pot
133  we investigate the inhibition of the UNC-49 GABA receptor by another sulfated neurosteroid, dehydroe
134 sponse augmentation and the direct gating of GABA receptors by 5alpha-reduced potentiating steroids.
135 bunit is capable of forming fully functional GABA receptors by itself in Xenopus oocytes and suggest
136 e, we find that co-activation of presynaptic GABA receptors by photolytic uncaging of RuBi-GABA has a
137 obes is evident, the mechanisms by which the GABA receptors can be photocontrolled have not been full
138              Finally, blocking NMDA, but not GABA, receptors causes ATM levels to rise while ATR leve
139                                              GABA receptor/channel rho 1 subunit expression in the rh
140    We studied the expression localization of GABA receptor/channel rho 1 subunit in mouse spinal cord
141           To understand the functions of the GABA receptor/channel rho 1 subunit in these crucial sit
142 f sensory transmission in vivo, we generated GABA receptor/channel rho 1 subunit mutant mice (rho 1-/
143             These findings indicate that the GABA receptor/channel rho 1 subunit plays an important r
144  immunohistochemistry results indicated that GABA receptor/channel rho 1 subunits were expressed in m
145                     gamma-Aminobutyric acid (GABA) receptor/channel rho 1 subunits are important comp
146 he discrete insertion and removal of AMPA or GABA receptor channels.
147            Therefore, the functional role of GABA receptor/channels in the brain, retina, and spinal
148 etaDB double mutants, the size and number of GABA receptor clusters are decreased at cerebellar inhib
149         Ionotropic gamma-amino butyric acid (GABA) receptors composed of heterogeneous molecular subu
150                                       Insect GABA receptors contain Ala at their 2' position in the p
151              Since the functional pentameric GABA receptor contains two alpha subunits, two beta subu
152                      By recording endogenous GABA receptor currents directly from BC terminals in gol
153                                   Whole-cell GABA receptor currents were moderately sensitive to GABA
154 also show a significant reduction in DGC and GABA receptor distribution as well as abnormal neuronal
155 eceptor-like family member GrlB as the major GABA receptor during early development, and either disru
156                     GrlE but not GrlB is the GABA receptor during late development.
157 e beta8-sheet of the adjacent subunit in the GABA receptor (E175-K46 being the structurally equivalen
158 0-F227) in the N-terminal domain of the rho1 GABA receptor expressed in Xenopus oocytes using a site-
159                                    Thus, the GABA receptors expressed by the yeast mRNA retained all
160 nts underlying the ionic selectivity of rho1 GABA receptors expressed in Xenopus oocytes and human em
161  that proton alters the apparent affinity of GABA receptors for agonist.
162 nhibit the UNC-49 GABA receptor, a homomeric GABA receptor from Caenorhabditis elegans that is homolo
163                                 Furthermore, GABA receptors from AD brains were slightly, but signifi
164  onto SACs - removing either GABA release or GABA receptors from SACs.
165                      We measured presynaptic GABA receptor function at parallel fibre synapses onto s
166 LRRTM4 knockout could originate from reduced GABA receptor function.
167 s and receptors [glutamate, aspartate, GABA, GABA receptor (GABA-R), NMDA-R, AMPA-R, and kainate-R] a
168 r loop (ICL) of the gamma2 subunit of type A GABA receptors (GABA(A)R), which is required to anchor G
169   A-type and rho-subunit-containing (C-type) GABA receptors (GABA(A)Rs and GABA(C)Rs) mediate both fo
170 otoneurons and is required to recruit type A GABA receptors (GABA(A)Rs) at inhibitory neuromuscular j
171                         We identified type-A GABA receptors (GABA(A)Rs) in inhibitory synapses and de
172 xpression of type A gamma-aminobutyric acid (GABA) receptor (GABA(A)R) subunit genes plays a critical
173 o acid GABA via activation of two ionotropic GABA receptors, GABA(A) and GABA(C).
174 ynaptic levels after 48 h blockade of type A GABA receptor (GABAA R)-mediated inhibition with bicucul
175                                              GABA receptors (GABAARs) mediate inhibition in the adult
176                                          The GABA receptor (GABABR) is a class C G protein-coupled re
177 iched synapses, virtually devoid of the main GABA receptor (GABAR) subunits alpha1 and gamma2.
178                                              GABA receptor (GABAR) types C (GABACR) and A (GABAAR) ar
179 are sufficiently hyperpolarized by increased GABA receptor (GABAR)-mediated HCO3- efflux, alkalinizin
180  schizophrenia often involve potentiation of GABA receptors (GABAR) to augment antipsychotic therapy
181   These include DBI, an allosteric binder of GABA receptors, GABARAPL1, the GABA receptor-associated
182  link between PMCA2 and glutamate receptors, GABA receptors (GABARs), and glutamate transporters that
183 ively spliced in TS compared to HC including GABA receptors GABRA4 and GABRG1, the nicotinic ACh rece
184    There is a strong history of mutations in GABA receptor genes being involved in neurologic disease
185 ric acid (GABA), in this putative imbalance: GABA receptor genes have been associated with autism in
186 of variants and mutations have been found in GABA receptor genes in patients with autism, schizophren
187          No variants of the commonly studied GABA receptor genes that have been associated with subst
188 thways strongly dominated in HIVE, including GABA receptors, glutamate signaling, synaptic potentiati
189 BA(A) receptors, study of steroid actions at GABA receptors has been hampered by a lack of pharmacolo
190 of recombinant rho1 gamma-aminobutyric acid (GABA) receptors has previously identified five residues
191 Striatal GABA is thought to modulate DA, but GABA receptors have not been documented conclusively on
192                Therefore, alpha4/6beta3delta GABA receptors have two distinct alcohol modulation site
193         Here, we describe a novel ionotropic GABA receptor in mouse cerebellar Purkinje cells (PCs) u
194                          Here, we identify a GABA receptor in the nematode Caenorhabditis elegans tha
195 ping with the distinct expression pattern of GABA receptors in presynaptic cells, we detected no GABA
196                                Activation of GABA receptors in rRPa does not mediate the cholinergic
197 ChR in rRPa does not depend on activation of GABA receptors in rRPa.
198 he increase in BAT SNA evoked by blockade of GABA receptors in rRPa.
199                                  The role of GABA receptors in synaptic transmission to neonatal rat
200      Little is known about the properties of GABA receptors in the amphibian brain.
201 nt NRHypo neurotoxicity mainly by activating GABA receptors in the anterior thalamus, diagonal band o
202 er, these results support the involvement of GABA receptors in the APC in feeding in general and the
203                                  Blockade of GABA receptors in the medial nucleus tractus solitarius
204 ion of agonists and antagonists, we compared GABA receptors in the medial vestibular nucleus of brain
205 ast inhibitory neurotransmission mediated by GABA receptors in the nervous system.
206 rmed yeast strains produced fully functional GABA receptors in Xenopus oocytes.
207 kade of ionotropric gamma-aminobutyric acid (GABA) receptors in the LH elicits eating in satiated rat
208 ied in principal cells, but INs also express GABA receptors, in particular the GABAA type (GABAARs),
209 nfirm that desensitization reversibly shifts GABA receptors into a high-affinity state.
210                                    The rho 1 GABA receptor is inhibited by a number of neuroactive st
211        One of the most widely studied insect GABA receptors is constructed from RDL (resistance to di
212           The rho1 subunit of the ionotropic GABA receptors is thought to contribute to the formation
213 domain (TM2) of the gamma-aminobutyric acid (GABA) receptor lines the integral ion pore.
214           These data suggest that in the PVN GABA receptors may be important regulators of cardiopulm
215                                   Peripheral GABA receptors may serve as a viable target for the trea
216 terations in spinal gamma-aminobutyric acid (GABA) receptors may contribute to persistent pain states
217               We directly recorded dendritic GABA receptor-mediated inhibitory synaptic events in adu
218 abapentin increased the amplitudes of evoked GABA receptor-mediated IPSCs (GABA-IPSCs) in CeA neurons
219 tence of time-locked, glutamate receptor and GABA receptor-mediated mono synaptic responses evoked by
220     Also, we observed a decrease in NMDA and GABA receptor-mediated synaptic transmission in the pyra
221 pocampus, without similarly changing NMDA or GABA receptor-mediated synaptic transmission, and withou
222  psychoses, as well as a marked reduction in GABA-receptor-mediated currents in pyramidal neurons of
223 es insulin-like peptide transcription in the GABA receptor neurons downstream of short neuropeptide F
224 the effects were predominantly directly upon GABA receptors of the neurons being recorded from.
225 he relative expression of the two classes of GABA receptor on each bipolar cell type correlates with
226     Because we could not localize ionotropic GABA receptors on cone axon terminals using electron mic
227 ne (DA) release, but definitive evidence for GABA receptors on DA axons is lacking.
228       The absence of ionotropic glutamate or GABA receptors on DA terminals indicates that modulatory
229                        While the presence of GABA receptors on primary afferents has been well descri
230 r, evidence of positive immunoreactivity for GABA receptors on the neurite, as well as evidence for g
231 pic GABA receptor pathways, the metabotropic GABA receptor pathways act to enhance bipolar cell trans
232 n, axon guidance, and signaling of Notch and GABA receptor pathways, as well as factors important for
233               However, unlike the ionotropic GABA receptor pathways, the metabotropic GABA receptor p
234  lend new insights into the structure of the GABA receptor pore.
235 ferent compositions of insect and vertebrate GABA receptor pores are responsible for the differing to
236      We further tested if spinal blockade of GABA receptors prevents the antihyperalgesia produced by
237            Prior studies have shown that the GABA receptor RDL inhibits aversive olfactory learning v
238 ified a single point mutation (A302S) in the GABA receptor RDL that has been identified previously in
239 atures during adolescence, with frontal lobe GABA receptors reaching adult levels late in adolescence
240 TP in mitral cells by enhancing postsynaptic GABA receptor responses.
241                    Activation of presynaptic GABA receptors results in a transient ( approximately 10
242  membrane potential ( approximately 8 mV) to GABA receptor reversal potential ( approximately -81 mV)
243                   CRF increased postsynaptic GABA receptor sensitivity selectively in 5-HT neurons, a
244 ely modulate GAT expression via metabotropic GABA receptor signaling and highlight the importance of
245 r photoactivation depended on glutamate- and GABA-receptor signaling, and not on dopamine-receptor si
246 e results suggest that increasing peripheral GABA receptor signalling could be used to treat visceral
247 in the spinal cord dorsal horn and activates GABA receptors spinally.
248 ptor subtype antagonist-induced mediation of GABA receptor subtype agonist-induced feeding elicited f
249 nt with previously demonstrated differential GABA receptor subtype antagonist-induced mediation of op
250 ions of agonists or antagonists to the major GABA receptor subtypes.
251 d the role of RVLM gamma-amino butyric acid (GABA) receptor subtypes and glycine receptors in mediati
252 beta1 subunits (SCN1A, SCN2A, SCN1B) and one GABA receptor subunit gene (GABRG2) have been identified
253 nd showed similar effects of sex steroids on GABA receptor subunit gene expression in the AMD and HPC
254                                              GABA receptor subunit gene expression was generally high
255    These results support the hypothesis that GABA receptor subunit genes are involved in autism, most
256                     Fourteen known autosomal GABA receptor subunit genes were studied to look for the
257 ng, adds to the functional diversity of this GABA receptor subunit.
258 mmunopositive for a gamma-aminobutyric acid (GABA) receptor subunit (GABAA Ralpha1 ), and that a syna
259  data demonstrate differential regulation of GABA receptor subunits and GABAergic system components i
260 In addition to expected components including GABA receptor subunits and gephyrin, several novel prote
261  transmission in cortical layer 4, including GABA receptor subunits and KCC2, and thus prevents the s
262 d copy number variation studies [3-7], fewer GABA receptor subunits have been observed in the post-mo
263       The EXP-1 protein resembles ionotropic GABA receptor subunits in almost all domains.
264 are the expression profiles of glutamate and GABA receptor subunits in three immortalized GnRH cell l
265 uctions of mRNA and protein of the principal GABA receptor subunits normally present in the temporal
266  AD groups and analyses of the proportion of GABA receptor subunits revealed down-regulation of alpha
267 s in gene expression levels of glutamate and GABA receptor subunits were compared between sedentary a
268 e evaluated the expression of genes encoding GABA receptor subunits, glutamic acid decarboxylase (GAD
269  Since no change is detected in the level of GABA receptors, such a reduction in tonic inhibition is
270 udies of alpha and beta subunits of type "A" GABA receptors suggest that these linkers couple extrace
271 dings reveal a novel "crosstalk" between the GABA receptor systems, which can be recruited under cond
272 sed in Xenopus laevis oocytes, EXP-1 forms a GABA receptor that is permeable to cations and not anion
273 , prevent the down-regulation of efficacy of GABA receptors that also occurs in these neurons after U
274 dulate postsynaptic excitability at NMDA and GABA receptors, the findings establish zinc as a cotrans
275                  In addition to the synaptic GABA receptors, there is a group of GABAA receptors (GAB
276 y dynamics, and the contribution of specific GABA receptors to these dynamics.
277 non-NMDA receptor transmission and depressed GABA receptor transmission in the wild-type mice, both e
278 holine receptors, two glycine receptors, one GABA receptor, two AMPA-type glutamate receptors and one
279                   Similar to the widely used GABA receptor type A (GABA(A)) antagonist picrotoxinin,
280 g in the pore of the alpha(2)beta(3)gamma(2) GABA receptor type A receptor at the so-called T6' ring,
281                                          The GABA receptor type C (GABA(C)) is a ligand-gated ion cha
282 nd that drugs that modulate the two dominant GABA receptor types in the brain, GABA(A) (clobazam) and
283 f D-MNs is mediated by a specific ionotropic GABA receptor (UNC-49) in AVA, and depends on electrical
284               We test this hypothesis in the GABA receptor using simultaneous electrophysiology and s
285 s and antagonists of mammalian glutamate and GABA receptors, using a specially developed 96-well micr
286                                The wild-type GABA receptor was chloride selective, with a small but s
287 gative purinergic modulation of postsynaptic GABA receptors was accompanied by small presynaptic enha
288 n training, the sensitivity of glutamate and GABA receptors was unchanged.
289  ion pore and selectivity filter of the rho1 GABA receptor, we used the substituted cysteine accessib
290  Following evaluation at clinically relevant GABA receptors, we have identified a difluoromethyl keto
291 s laevis oocytes expressing recombinant rho1 GABA receptors, we identified agonist-mediated molecular
292 s action of the antagonist was occluded when GABA receptors were blocked, indicating that the reducti
293 c acetylcholine (nACh) and beta2alpha1gamma2 GABA receptors were constructed based on the torpedo neu
294 ergic currents and glia-driven modulation of GABA receptors were significantly reduced in the P2X4 KO
295 ed currents in individual oocytes expressing GABA receptors were tested by two-electrode voltage clam
296 e into Xenopus oocytes, expressed functional GABA receptors whose properties were investigated by usi
297 Thus, we describe a population of ionotropic GABA receptors with a mixed GABA(A)/GABA(C) pharmacology
298                                   Inhibiting GABA receptors with bicuculline increased NMDA receptor-
299       Antagonism of gamma-aminobutyric acid (GABA) receptors with bicuculline (BIC) phenocopied the d
300                                              GABA receptors within the mesolimbic circuitry have been

 
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