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1 bsence of fast inhibition (blocked by 0.1 mM picrotoxin).
2 s prevented by the GABAA receptor antagonist picrotoxin.
3 nly after slice perfusion with 0 mM Mg2+ and picrotoxin.
4 king GABAergic inhibition with intracellular picrotoxin.
5 rents and secretion, which were sensitive to picrotoxin.
6 macological agents, including the convulsant picrotoxin.
7 ted inhibition was reduced by bicuculline or picrotoxin.
8 revent inhibition of the GABA(A) receptor by picrotoxin.
9 e seen with GABA-type-A-receptor blockade by picrotoxin.
10 00 microM), but was unaffected by 100 microM picrotoxin.
11 , but not for the non-competitive antagonist picrotoxin.
12 ric acid alpha subunit) receptor antagonist, picrotoxin.
13  chloride concentration, and is inhibited by picrotoxin.
14   This increase persisted in the presence of picrotoxin.
15 0) = 166 microM), only weakly antagonized by picrotoxin.
16 by GABA and that is blocked substantially by picrotoxin.
17 nal conductance increase that was blocked by picrotoxin.
18  different chemoconvulsants, pilocarpine and picrotoxin.
19 ause the effects of H(2)O(2) were blocked by picrotoxin.
20 nM tetrodotoxin (TTX), but not by 150 microM picrotoxin.
21  using the GABAA antagonists bicuculline and picrotoxin.
22 of BMI or the noncompetitive GABA antagonist picrotoxin.
23 ses converted to paired-pulse depression, by picrotoxin.
24 edium but was ineffective in the presence of picrotoxin.
25 fects can be explained by block of IPSPAs by picrotoxin.
26 he GABA receptor antagonists bicuculline and picrotoxin.
27 low concentrations was sensitive to block by picrotoxin.
28 00 Hz), in either the presence or absence of picrotoxin.
29 Hz, 1 s) in both the absence and presence of picrotoxin.
30 t can be blocked by an open channel blocker, picrotoxin.
31 -13 but sensitive to the GABA(A)R antagonist picrotoxin.
32 at in flies treated with the GABA antagonist picrotoxin.
33 ter L-glutamate and the open-channel blocker picrotoxin.
34  presence of the GABA(A) receptor antagonist picrotoxin.
35 lished by application of the GABA(a) blocker picrotoxin.
36 sive doses of the GABAA receptor antagonist, picrotoxin.
37 entiation of EPSPAs at 50 Hz was enhanced by picrotoxin (0.1 mM) but was not significantly affected b
38  quinpirole (500 ng), the GABA(A) antagonist picrotoxin (0.25, 0.5 or 1 microg) or bicuculline (20 ng
39 ic currents (sIPSCs) by application of 100 M picrotoxin+1 microM strychnine.
40 ceptor antagonists bicuculline (10(-5) M) or picrotoxin (10(-4) M) had no effect on the length of per
41 tor antagonists, bicuculline (10 microM) and picrotoxin (100 microM), inhibited established depolariz
42 mM), pentylenetetrazole (1.5g/L; 11.0mM) and picrotoxin (100mg/L; 0.17mM).
43 es are effectively nullified at low doses of picrotoxin (2.5-5 microM).
44 duce holding currents that were sensitive to picrotoxin (30 microM).
45 ures was then pharmacologically removed with picrotoxin (40 microM) or bicuculline (25 microM) result
46  of nicotine was blocked by a combination of picrotoxin (50 microM) and saclofen (100 microM), and th
47                           In the presence of picrotoxin (50 microM), the amplitude of 6-cyano-7-nitro
48                          Once again, neither picrotoxin (50 microM, n = 5) nor CNQX (10 microM, n = 5
49 y bath application of the GABA(A) antagonist picrotoxin (50 microM, n = 9) or the glutamate receptor
50 ssed by bicuculline (-41 +/- 5.7 %, 5:8) and picrotoxin (-54 %, 1:1), and the enhancement produced by
51 trongly inhibited and the wave eliminated by picrotoxin, a blocker of GABAA receptor/Cl- channels and
52            After suppressing inhibition with picrotoxin, a GABA(A) receptor antagonist, NMDA receptor
53 e) have structures similar to the convulsant picrotoxin, a GABA(A) receptor antagonist, so their lack
54     This GABA-induced current was blocked by picrotoxin, a GABA(A) receptor blocker.
55                                    We report picrotoxin, a GABA(A)R antagonist, blocks neurotransmiss
56 observed in any of our recordings, even when picrotoxin, a GABAA blocker, was included in the interna
57 -cAMPS induced LTD in slices pretreated with picrotoxin, a gamma-aminobutyric acid type A (GABA(A)) r
58                                              Picrotoxin, a potent antagonist of the inhibitory centra
59     i.p. injection of a subthreshold dose of picrotoxin, a use-dependent gamma-aminobutyric acid rece
60              The GABA(A) receptor antagonist picrotoxin abolished this rescue, while pentobarbital re
61                                    Following picrotoxin administration in the basolateral amygdala, c
62 esistance to the GABA(A) receptor antagonist picrotoxin, allowing verification of mutant subunit inco
63 minals characteristic of cultures exposed to picrotoxin alone.
64                                              Picrotoxin also markedly enhanced prefrontal LFP power.
65 hronization is also selectively abolished by picrotoxin, an antagonist of the GABA(A) (gamma-aminobut
66 d widening of EPSPAs at 5 Hz was occluded by picrotoxin and abolished by CGP 35348.
67                However, the GABA antagonists picrotoxin and bicuculline enhanced the on-centre respon
68                                              Picrotoxin and bicuculline methiodide inhibited both com
69  receptor-mediated responses were blocked by picrotoxin and bicuculline.
70 ased in the presence of the GABA antagonists picrotoxin and CGP55845.
71               The suppression was blocked by picrotoxin and cimetidine, respective antagonists to lob
72 of the IPSC decay indicated a Q10 value of 2.Picrotoxin and cyanotriphenylborate had little or no eff
73 itude that were inhibited by bicuculline and picrotoxin and facilitated by diazepam and zolpidem in a
74 gic and GABAergic inputs with strychnine and picrotoxin and found that TTX in this case had the same
75 its were injected with high and low doses of picrotoxin and gabazine.
76      It is the target of convulsants such as picrotoxin and is mutated in some forms of epilepsy, a d
77 ing equilibrium and can, therefore, displace picrotoxin and prevent inhibition of the GABA(A) recepto
78 s insensitive to the Cl(-) channel blockers, picrotoxin and strychnine, but it was inhibited by a spe
79                                              Picrotoxin and t-butylbicyclophosphorothionate (TBPS) ar
80 In the absence of episodic GABA application, picrotoxin and TBPS blocked (by 91 +/- 3% and 85 +/- 5%,
81 e noncompetitive GABA(A) receptor antagonist picrotoxin and the competitive GABA(A) receptor antagoni
82              The GABAa/c receptor antagonist picrotoxin and the glycine receptor antagonist strychnin
83 tance that is insensitive to gabazine and to picrotoxin and thus not mediated by conventional GABA re
84  presence of the GABA(A) receptor antagonist picrotoxin and was abolished when both GABA(A) and GABA(
85  GABA were attenuated by (-)-bicuculline and picrotoxin and were potentiated by chlordiazepoxide and
86  This resting conductance was antagonized by picrotoxin and, in the case of the A, G, S, and T substi
87 ed spontaneous openings that were blocked by picrotoxin and, surprisingly, by the competitive antagon
88 ethoxy-4-ethyl-beta-carboline-3-carboxylate, picrotoxin, and amygdala-kindled seizures in mice (ED50
89  were found to suppress zero-Ca2+, low-Ca2+, picrotoxin, and high-K+ epileptiform activity for the du
90  induced by pentylenetetrazole, bicucculine, picrotoxin, and strychnine; also, 2 was not active in di
91 l stimulation could also completely suppress picrotoxin- and high-K+-induced epileptiform activity wi
92  increases in the frequency of bicuculline-, picrotoxin-, and 4-aminopyridine-sensitive miniature IPS
93 ma-aminobutyric acid type A and C receptors, picrotoxin antagonism of the alpha1 homomeric glycine re
94                                              Picrotoxin antagonism of the embryonic alpha2 homomeric
95 l-blocking mechanism, but the selectivity of picrotoxin antagonism of the embryonic alpha2 homomeric
96  potential oscillations remained after focal picrotoxin applications, and these exhibited the voltage
97                                              Picrotoxin at 133 pmol elicited eating in the LH, but no
98         Application of the GABA antagonists, picrotoxin, bicuculline and 1,2,5,6-tetrahydropyridine-4
99 diazepines, and neurosteroids) and negative (picrotoxin, bicuculline, and Zn2+) allosteric modulators
100 mpounds that bind with equal affinity to the picrotoxin-binding site on the open-channel form of the
101           (iii) The mechanism indicates that picrotoxin binds to an allosteric site of the receptor w
102 e observations, we proposed a model in which picrotoxin binds to the GABA(C) receptor in both channel
103                                 In contrast, picrotoxin blockade produces no change in F(TMRM) at the
104 termining use-facilitated characteristics of picrotoxin blockade.
105 wly over the course of 5-20 min, even though picrotoxin blocked both GABA(A) and GABA(C) receptors wi
106               The non-competitive antagonist picrotoxin blocked nearly 50% of GABA-induced fluorescen
107                                     However, picrotoxin blocked only a part of this GABAC effect, whi
108  Conversely, the GABA(A) receptor antagonist picrotoxin blocked spindle frequency oscillations result
109                           Interestingly, the picrotoxin-blocked fraction of the GABA-induced fluoresc
110       Dopamine activity was fully blocked by picrotoxin but not GABAA competitive antagonists, and wa
111 amped neurons and this action was blocked by picrotoxin but not the more selective GABAA antagonist b
112  eliminated by the GABAA receptor antagonist picrotoxin but small (< 5 mV) membrane potential oscilla
113 was converted to paired-pulse enlargement by picrotoxin but was unaffected by CGP 35348.
114 firing was prevented by the GABAA antagonist picrotoxin, but EtOH had no effect on evoked or spontane
115 Ps were blocked by the Cl(-) channel blocker picrotoxin, but not by bicuculline or strychnine, and by
116 t which was antagonized by strychnine and by picrotoxin, but not by bicuculline.
117 d by intracranial pretreatment with 20 ng of picrotoxin, but not by microinjection of 5 micrograms of
118 the presence of the GABA(A) receptor blocker picrotoxin, but not by pretreatment with SR141716A.
119 effect was blocked by the GABA(A) antagonist picrotoxin, but not duplicated by direct application of
120 6N2O2; 62.5, 125, 250 ng/side) or antagonist picrotoxin (C30H34O13; 75, 150, 300 ng/side), respective
121   In dark-adapted retinal slice preparations picrotoxin caused a slow enhancement of glycine-mediated
122          In dark-adapted eyecup preparations picrotoxin caused a slow enhancement of glycinergic IPSP
123 aminobutyric acid type A receptor antagonist picrotoxin caused an activity-dependent and NMDA recepto
124 he GABA(A) receptor blockers bicuculline and picrotoxin caused an outward shift in the holding curren
125 -field locomotor activity, whereas 300 ng of picrotoxin caused locomotor hyperactivity; sensorimotor
126                            In the absence of picrotoxin, CGP 35348 also promoted depolarization by en
127 n the presence of various synaptic blockers (picrotoxin, CGP55845, APV, DNQX, E4CPG, and MSPG), we de
128 tion-dependent manner, indicating that these picrotoxin components can bind to the receptor in its op
129 n-use-dependent and nonselective between the picrotoxin components picrotoxinin and picrotin.
130  in slices maintained in standard buffer and picrotoxin-containing buffer.
131 ical agonist site at subunit interfaces, and picrotoxin directly occludes the pore near its cytosolic
132                                     However, picrotoxin displaceable [(35)S]TBPS binding to alpha1bet
133 lsed depression of EPSPNs in the presence of picrotoxin, effects consistent with its block of GABAB a
134                         Muscimol reduced and picrotoxin enhanced bursting and both drugs changed the
135               Applications of bicuculline or picrotoxin enhanced the spontaneous firing rate of corti
136                    In addition, low doses of picrotoxin facilitated the expression of unconditioned e
137                     However, bicuculline and picrotoxin failed to block it.
138 ce change, but the noncompetitive antagonist picrotoxin failed to elicit optical signals.
139                         The channel blockers picrotoxin, fipronil, and tetramethylenedisulfotetramine
140    (i) The apparent dissociation constant of picrotoxin for the open-channel form of the receptor was
141  were used to select those that can displace picrotoxin from the membrane-bound GABA(A) receptor in t
142  that, in the presence of either gabazine or picrotoxin (GABA receptor antagonists), many action pote
143 xolone (gap junctions blocker), control, and picrotoxin (GABA-A receptor antagonist).
144 dine-4-yl)-methylphosphinic acid (TPMPA) and picrotoxin, GABAC receptor antagonists, reduced the ATPA
145            In the presence of strychnine and picrotoxin, ganglion cells responded to light onset and
146  magnitudes of the shifts in GABA EC(50) and picrotoxin IC(50) as well as the degree of spontaneous o
147  divalent cation Zn(2+) (IC(50)=33.6 microM) picrotoxin (IC(50)=2.4 microM) and blockade of endogenou
148 re blocked by strychnine (IC50 = 630 nm) and picrotoxin (IC50 = 197 mum), where the latter is suggest
149 CSRT) test, we showed that both muscimol and picrotoxin impaired attention (reduced accuracy, increas
150 S firing rate in control, and application of picrotoxin increased both.
151 uscimol inhibited prefrontal firing, whereas picrotoxin increased firing, mainly within bursts.
152                                         (ii) Picrotoxin increased the channel-closing rate constant (
153 uration, blockade of GABAergic inhibition by picrotoxin increases B8 activity during protraction and
154 increased leak current that was sensitive to picrotoxin, indicating an increased gating efficiency.
155 uctance that was blocked by both 3-APMPA and picrotoxin, indicating spontaneously opening GABA recept
156 re unchanged by the GABA(A) receptor blocker picrotoxin, indicating that alpha7-nAChRs presynapticall
157       These were blocked by tetrodotoxin and picrotoxin, indicating that glucose was acting indirectl
158  application of glycine were not enhanced by picrotoxin, indicating that the enhancement was not caus
159 rrents were sensitive to both strychnine and picrotoxin, indicating that they are mediated by extrasy
160  by application of bicuculline methiodide or picrotoxin, indicating that they are mediated by GABAA r
161           Finally, the allosteric antagonist picrotoxin induced a global conformational change that w
162 simultaneously the coapplication of GABA and picrotoxin induced a large rebound of membrane current.
163             As in other studies, kainate and picrotoxin induced an upsurge in BDNF expression, but BD
164 ed only pre- and/or parasubiculum, evoked or picrotoxin-induced bursts occurred only in deep layer ce
165  behavioural learning paradigm, we show that picrotoxin-induced desynchronization impairs the discrim
166 ncreased, rats increased response levels for picrotoxin infusion.
167 ; rats discriminated the lever that produced picrotoxin infusions from the lever without consequences
168                                              Picrotoxin inhibited the channel openings by reducing th
169                                           In picrotoxin inhibition and in one form of epilepsy, a dec
170 celeration of GABA relaxation were unique to picrotoxin inhibition and were not observed with the com
171 of the experimental findings we observed for picrotoxin inhibition of GABA(C) receptors.
172 e second transmembrane domain that converted picrotoxin inhibition of glycine alpha1 receptors from n
173 e results support an allosteric mechanism of picrotoxin inhibition of ligand-gated chloride channels.
174  noncompetitive mechanisms were observed for picrotoxin inhibition of the GABA(C) receptor.
175           In this study, we investigated the picrotoxin inhibition on perch-rho subunits expressed he
176 inity to the open-channel form and alleviate picrotoxin inhibition.
177              However, the mechanism by which picrotoxin inhibits these receptors is still in debate.
178                           More specifically, picrotoxin injected into the tuberal LH (tLH) elicited e
179 properties were modified in vivo by intra-IO picrotoxin injection, which enhances synchronous oscilla
180  movements was greatly reduced, and intra-IO picrotoxin injections did not affect the evoked movement
181                       In hippocampal slices, picrotoxin-insensitive inhibitory synaptic currents exhi
182                        Pressure injection of picrotoxin into the antennal lobe eliminated the oscilla
183                                  Infusion of picrotoxin into the infralimbic mPFC also reduced fear r
184 oinfusion of the GABA(A) receptor antagonist picrotoxin into the normal adult PFC.
185                   Juvenile rats infused with picrotoxin into the prelimbic mPFC and exposed to a thre
186             Infusion of the GABAA antagonist picrotoxin into the VM reduced both high beta power in M
187 ich GABA-mediated currents were blocked with picrotoxin, IPSCs elicited by diffuse illumination were
188                                              Picrotoxin is a plant alkaloid that is often used to blo
189 our protocol, the GABA-A receptor antagonist picrotoxin is stereotaxically infused in the basolateral
190 ncing synaptic activity in WT, by feeding of picrotoxin is sufficient to increase I(Nap) and promote
191 Given that the OFF response is unmasked with picrotoxin, its direction selectivity cannot be generate
192 to different scope) by low concentrations of picrotoxin (&lt;/= 30 muM), which selectively blocked alpha
193 data are consistent with the suggestion that picrotoxin may interact with two domains in ligand-gated
194 ydrogen bonding, directly interacts with the picrotoxin molecule.
195                             This was because picrotoxin occluded whereas CGP 35348 blocked the effect
196 e, we present the mechanism of inhibition by picrotoxin of the rat alpha1beta2gamma2L GABA(A) recepto
197                                              Picrotoxin, on the other hand, was more effective in blo
198  uncoupling is blocked by co-incubation with picrotoxin or alpha-amanitin but is insensitive to nifed
199  blocked by the GABA(A) receptor antagonists picrotoxin or bicuculline methiodide (BMI), and had long
200 pplication of the GABAA receptor antagonists picrotoxin or bicuculline.
201  sensitive to the GABAA receptor antagonists picrotoxin or bicuculline.
202 d in the presence of the GABA(A) antagonists picrotoxin or bicuculline.
203 antennal lobe, and this effect is blocked by picrotoxin or by transgenic RNAi-mediated knockdown of t
204                    In the presence of either picrotoxin or CGP 35348 the primed EPSPAs and EPSPNs res
205  and either blocked intra-RE inhibition with picrotoxin or enhanced it with clonazepam.
206  of postsynaptic GABA(A)R with intracellular picrotoxin or gabazine, suggesting that Nxph1 is able to
207                                              Picrotoxin or muscimol was applied to the cerebellar cor
208 val of extracellular Mg2+ and application of picrotoxin or perfusion with 0.5 mM Mg2+ and 8.5 mM K+-c
209                      GABA application during picrotoxin or TBPS administration enhanced alpha1beta2ga
210         Seizure activity was precipitated by picrotoxin or with the BDZ inverse agonist n-methyl-beta
211                                              Picrotoxin partially blocked glutamate's inhibition of t
212 manipulation with period-altering compounds: picrotoxin, PF-670462 (4-[1-Cyclohexyl-4-(4-fluorophenyl
213  The alkaline shifts persisted in 100 microM picrotoxin (PiTX) but were blocked by 25 microM CNQX/50
214                             Finally, chronic picrotoxin pretreatment (100 microM) intended to mimic G
215             The GABAAR and GlyR pore blocker picrotoxin prevented desensitization, consistent with it
216 tterns of neural activity in the presence of picrotoxin prevented the D-V pathfinding errors in the l
217                                              Picrotoxin (PTX) co-applied with glycine suppressed both
218        The central nervous system convulsant picrotoxin (PTX) inhibits GABA(A) and glutamate-gated Cl
219                                              Picrotoxin (PTX) is a noncompetitive antagonist of many
220 spiking; TTX+N-methyl-D-aspartic acid (NMDA)+picrotoxin (PTX) or gamma-aminobutyric acid (GABA) to bl
221 ts of GABA-A receptor blockade, finding that picrotoxin (PTX) recapitulated the decrease in sound-evo
222 l disorders with recent data suggesting that picrotoxin (PTX), a GABAA receptor antagonist, rescues c
223 mma-aminobutyric acid (GABA(A&C)) antagonist picrotoxin (PTX), or the inhibitory amino acid GABA and
224 e to millimolar concentrations of GABA and a picrotoxin (PTX)-sensitive, bicuculline-insensitive curr
225 AZINE (GBZ) and the chloride channel blocker picrotoxin (PTX).
226   Antagonists of GABAB (saclofen) and GABAC (picrotoxin) receptors partially inhibited responses to b
227 (including tonic and synaptic currents) with picrotoxin reduced interspike interval (ISI) variability
228                                 We confirmed picrotoxin resistance and biophysical properties in reco
229 the two receptor populations using mice with picrotoxin resistance engineered into receptors containi
230 e binding effect is further supported by the picrotoxin resistance of a competitive antagonist-induce
231               We used gene editing to confer picrotoxin resistance on delta receptors in mice, then p
232 the alpha, beta or gamma subunit, can impart picrotoxin resistance to the GABA receptor.
233 gle subunit carrying the 6' mutation imparts picrotoxin resistance.
234 mpal neurons transfected with alpha4 and the picrotoxin-resistant delta(T269Y) subunit showed large r
235 agating into the dorsal neocortex, as do the picrotoxin-resistant fraction of waves in controls.
236 esence of 300 muM picrotoxin, suggesting the picrotoxin-resistant subtype the alphabeta heteromeric G
237 neuron firing, the GABAA receptor antagonist picrotoxin resulted in a consistent suppression of firin
238 application of the GABA(A) receptor blocker, picrotoxin, resulted in motoneurons making dorsal-ventra
239 current and associated noise were reduced by picrotoxin, revealing that epsilon-containing channels a
240       Muscimol, a GABA(A) agonist, disrupted picrotoxin self-infusion, but bicuculline, a GABA(A) ant
241 idal neurons, which in sham treated rats was picrotoxin sensitive.
242                   Fast IPSCs are mediated by picrotoxin-sensitive chloride conducting GABA receptors.
243 amp electrophysiology reveals GABA-activated picrotoxin-sensitive chloride currents on PDF+ neurons.
244  for GABA, GAD67, selectively eliminates the picrotoxin-sensitive fraction of these waves.
245 ted byalpha-bungarotoxin-sensitive nAChRs or picrotoxin-sensitive GABA receptors.
246 ry neuronal progenitor responded to GABA via picrotoxin-sensitive GABAA receptor (GABAAR) activation.
247                These inputs were linked to a picrotoxin-sensitive increase of Ca(2+) in the terminals
248 ents were blocked by kynurenic acid, leaving picrotoxin-sensitive IPSCs.
249                In eight neurons, spontaneous picrotoxin-sensitive IPSPs were recorded and found to di
250                                 Furthermore, picrotoxin-sensitive spontaneous single-channel events r
251 on recordings) by decreased magnitude of the picrotoxin-sensitive tonic current (I(tonic)), but not m
252 on, when mutated to phenylalanine, abolishes picrotoxin sensitivity.
253               Rats treated systemically with picrotoxin showed a dramatic increase in levels of NE wi
254                                 In addition, picrotoxin significantly accelerated the kinetics of GAB
255 inhibit ligand binding at the GABAA receptor picrotoxin site in the Fischer (F344) rat IC.
256        Rats quickly learned to self-infuse a picrotoxin solution into the anterior VTA; rats discrimi
257 ents reversed around ECl and were blocked by picrotoxin, strychnine, or both, suggesting they were me
258 ponses) which were blocked by bicuculline or picrotoxin, suggesting GABA(A) mediation.
259 e responses to alfaxalone in the presence of picrotoxin, suggesting that alpha4betadelta receptors ma
260 d by the GABA(A) antagonists bicuculline and picrotoxin, suggesting that the inhibitory action of D2
261  Mg2+ deprivation, but not that generated by picrotoxin, suggesting that TRH-mediated increase in GAB
262 ocked by addition of a subconvulsive dose of picrotoxin, suggesting the involvement of GABAA receptor
263 f I(Gly) remained in the presence of 300 muM picrotoxin, suggesting the picrotoxin-resistant subtype
264 rrents reversed near ECl and were blocked by picrotoxin, suggesting they arose from GABAa/c receptors
265  readily antagonized by both bicuculline and picrotoxin than the GABAh response.
266                           In the presence of picrotoxin, the action potential amplitude is increased
267 e presence of the GABAA receptor antagonist, picrotoxin, the application of BDNF (100 ng/ml) for 1-5
268 id nanodiscs is bound to the channel-blocker picrotoxin, the competitive antagonist bicuculline, the
269 ned the effects of the GABAergic antagonist, picrotoxin, the GABAergic agonist, muscimol, and saline
270            In the presence of strychnine and picrotoxin, the NBQX-induced enhancement of NMDA current
271 embryos were chronically treated in ovo with picrotoxin to block GABA(A) receptors, while light activ
272 F and NT-4 to cerebellar explants exposed to picrotoxin to increase neuronal activity prevented the h
273                           Using infusions of picrotoxin to the interpositus nucleus of the rabbit cer
274                      Epidural application of picrotoxin to the rat's M1 motor cortex induced Fos in i
275  and an established animal model of seizure (picrotoxin) to determine the effects of epileptic seizur
276            The most striking effect was that picrotoxin-treated rabbits initially trained with a 250-
277 rd buffer, whereas normal LTP was induced in picrotoxin-treated, disinhibited slices.
278 the application of the GABA receptor blocker picrotoxin unmasks a robust excitatory OFF response in O
279                      In 0 Mg(2+) saline with picrotoxin (using a 20 Hz train), the HW measures were s
280 mean open time in the presence of 100 microM picrotoxin was 0.07 +/- 0.01 s (77 openings from 3 patch
281            The change in kinetics induced by picrotoxin was also observed on receptors formed by othe
282                            Furthermore, when picrotoxin was applied only at the lateral edge of the a
283 nobutyric acid (GABA)(A) receptor antagonist picrotoxin was applied.
284                     At equal concentrations, picrotoxin was approximately twice as effective as bicuc
285 effect is specific to the LH, the antagonist picrotoxin was injected into one of six nearby sites and
286 ation of the mPFC alone with GABA antagonist picrotoxin was insufficient to elicit the stress effect
287                                              Picrotoxin was more effective than ATPA.
288                                       Again, picrotoxin was most effective, producing, on average, a
289 The slow enhancement of glycinergic IPSCs by picrotoxin was much weaker in light-adapted preparations
290 gnificantly decreased and the sensitivity to picrotoxin was significantly increased.
291                    The reinforcing effect of picrotoxin was site-specific: Anterior VTA regions suppo
292  the GABAA receptor chloride channel blocker picrotoxin, whereas the slow sustained IPSPs were blocke
293                                 In contrast, picrotoxin, which blocks the GABA-gated Cl- channel, did
294 blocks sodium spiking in amacrine cells, and picrotoxin, which blocks the inhibitory action of GABA,
295               Chronic (7-day) treatment with picrotoxin, which induced a persistent four-fold increas
296 atiotemporal distribution in the presence of picrotoxin, which induced the merging of neuronal cluste
297 idural application of the GABA(A) antagonist picrotoxin, which produces a topographically restricted
298 current, whereas the application of zinc and picrotoxin, which reduce GABAR currents, reduced the hol
299 ons of GABA, were blocked by bicuculline and picrotoxin with IC50 values of 2.7 and 5.1 mum, respecti
300 esting membrane conductances were reduced by picrotoxin, zinc, or penicillin-G.

 
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