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1 T-2R antagonist) or H89 (a protein kinase A (PKA) inhibitor).
2 ior treatment of cells with H-89, a specific PKA inhibitor.
3 The antagonist effects were occluded by a PKA inhibitor.
4 y of Slo-a, an effect that was reversed by a PKA inhibitor.
5 ry domain similar to that of the heat-stable PKA inhibitor.
6 nist, 8Br-cAMP, and was inhibited by H-89, a PKA inhibitor.
7 er basal conditions and in the presence of a PKA inhibitor.
8 112/136A mutant was >90% inhibited by H89, a PKA inhibitor.
9 ein kinase (PKA), and was blocked by H-89, a PKA inhibitor.
10 ally attenuated by pretreatment with H-89, a PKA inhibitor.
11 of G6PD with NOX, which was inhibited by the PKA inhibitor.
12 that is more stable and is a more effective PKA inhibitor.
13 ceptor activation could be abolished by cAMP-PKA inhibitors.
14 othelial alignment, was similarly blocked by PKA inhibitors.
15 ibitors of the protein kinase Akt but not by PKA inhibitors.
16 were performed in the absence or presence of PKA inhibitors.
17 mouse platelets is inhibited by both PKG and PKA inhibitors.
18 in kinase A (PKA) activators and occluded by PKA inhibitors.
19 erine 10, based on inhibition exclusively by PKA inhibitors.
20 or forskolin and was inhibited by the AC and PKA inhibitors.
21 d inhibition of specific PKA activity by the PKA inhibitors.
22 ctivator N(6)-Phe-cAMP and prevented by both PKA inhibitors.
23 se, in the presence and absence of TORC1 and PKA inhibitors.
24 cally dependent when pre-treated with PKC or PKA inhibitors.
25 by a specific cAMP-dependent protein kinase (PKA) inhibitor.
26 P analog, and blocked by a protein kinase A (PKA) inhibitor.
27 T were blocked by cAMP and protein kinase A (PKA) inhibitors.
28 t kinase P70S6K was significantly reduced by PKA inhibitor 14-22 amide and by the mitogen signal-regu
33 mide I (Bis-I, 10 microM six rats)], PKG and PKA inhibitor (A-3, 1 mM, six rats), or the serine-threo
35 ced IGF-I gene activation, while cytoplasmic PKA inhibitor additionally caused the removal of C/EBPde
36 CGRP-induced currents were reduced by the PKA inhibitors adenosine 3',5'-cyclic monophosphorothioa
41 ulated by isoproterenol in the presence of a PKA inhibitor and GTP-gamma-S in LDS but not VEDS cardio
42 ted that beta1-AR recycling was inhibited by PKA inhibitors and by mutations in the PDZ that interfer
43 d forskolin was also completely inhibited by PKA inhibitors and SB202190, indicating that these effec
45 cted T150 phosphorylation was not blocked by PKA inhibitors and was not induced by PKA activation, an
46 y pertussis toxin (G(i) inhibitor) and H-89 (PKA inhibitor), and was insensitive to depletion of endo
47 ted in response to elevated cAMP, blocked by PKA inhibitor, and essential for scaffold-receptor assoc
48 1 S845 phosphorylation could be blocked by a PKA inhibitor, and GluA1 T840 dephosphorylation could be
49 inhibitor of protein kinase A, myristoylated PKA inhibitor, and the adenylyl cyclase inhibitor SQ-225
51 H-89, a cyclic AMP-dependent protein kinase (PKA) inhibitor, antagonizes the enhancing effect of isop
54 s raised overnight in BDNF were treated with PKA inhibitors, BDNF-mediated protection did not end, de
59 , pretreatment of HMC with protein kinase A (PKA) inhibitors blocked both Cdc42 activation and beta(1
61 When added to the pipette solution, H-89, a PKA inhibitor, blocked ATP and 8-Br-cAMP induced run-up
64 ses S1412 phosphorylation that is blocked by PKA inhibitors but not by PI3-kinase/Akt inhibitors.
65 -stimulated p70s6k activity was repressed by PKA inhibitors but not by wortmannin or microinjection o
66 -kinase inhibitor) or H89 (protein kinase A (PKA) inhibitor) but not ICI182780 (estrogen receptor blo
68 nding, and the inhibition of PKA activity by PKA inhibitor can partially recover the reduced HNF-4alp
69 icular (i.c.v.) injection of either a PKC or PKA inhibitor completely reversed the expression of 5- t
70 omponent was occluded by a protein kinase A (PKA) inhibitor, consistent with our previous demonstrati
72 cell migration was inhibited by ERK, but not PKA inhibitors, defining a functional link between PGE(2
73 TP is differentially sensitive to CaMKII and PKA inhibitors depending on the history of the synapse.
78 In contrast, injection of protein kinase A (PKA) inhibitors either before or after these hyperalgesi
80 ated with MKP3(DUSP6) inhibitors blocked and PKA inhibitors enhanced dephosphorylation of recombinant
84 ated protein kinase (ROCK)/protein kinase A (PKA) inhibitor fasudil, a drug already tested on humans.
93 enosine and 8-Br-cAMP, whereas the selective PKA inhibitor H-89 reversed the activation of Cdc42.
94 d CICR in response to exendin-4, whereas the PKA inhibitor H-89 was ineffective when tested at a conc
95 abrogated by treatment with 3 microm of the PKA inhibitor H-89, it is concluded that for INS-1 cells
100 ression by PGE2 were blocked by the specific PKA inhibitors H-89 (30 microM) or SQ 22536 (500 microM,
103 activation of protein kinase A (PKA), as the PKA inhibitors H-89 and Rp-8Br-cAMPS abrogated cAMP inhi
104 ription stage, although experiments with the PKA inhibitors H-89 and Rp-cAMP or the PKG inhibitor KT5
108 this effect was blocked by protein kinase A (PKA) inhibitors H-89 and PKI, suggesting a dependence on
109 ls were treated with PGE2, protein kinase A (PKA) inhibitors H-89 or SQ 22536, protein kinase C (PKC)
110 r sex, an effect that was insensitive to the PKA inhibitors (H-89, KT270) but that was blocked by the
113 erase activity in a dose-dependent manner; a PKA inhibitor, H-89, also blocked the induction by PTH a
116 ylation was blocked by the protein kinase A (PKA) inhibitor, H-89, and mimicked by the PKA activator,
117 he PKC activator, PMA; and protein kinase A (PKA) inhibitor, H-89; as well as the adenylate cylase ac
118 (pALDH3.5CAT) were enhanced 3-4-fold by the PKA inhibitor H8 but not by the PKC inhibitor H7 (>20 mi
120 ffect was blocked by cell treatment with the PKA inhibitor H89 and was not observed in PKA-transfecte
127 protein kinase A (PKA) and is blocked by the PKA inhibitor H89 or small interfering RNA knockdown of
130 in E2-BSA-treated trauma-hemorrhage rats by PKA inhibitor H89 prevented the E2-BSA attenuation of he
131 by reducing its interaction with LSD1 while PKA inhibitor H89 represses them by suppressing H3K4 met
134 he adenyl cyclase inhibitor MDL12330A or the PKA inhibitor H89, but not the vasopressin 2 receptor (V
135 fibronectin aggregates was abolished by the PKA inhibitor H89, whereas the effect of GD1a was mimick
142 tivation was confirmed by the ability of the PKA inhibitors H89 (20 microm) and (R(p))-cAMP-S (1 mm)
143 (PKA) activation, as demonstrated using the PKA inhibitors H89 and myristoylated PKI(6-22) amide.
144 s are abolished when treating cells with the PKA inhibitors H89 or KT5720 as well as in cells express
146 cell fusion, whereas treatment of cells with PKA inhibitors H89, KT5720, and PKA Catalpha siRNA all e
147 n-2-amine] or the specific protein kinase A (PKA) inhibitor H89 (N-[2-(p-bromocinnamyl-amino)ethyl]-5
150 here that the cAMP-dependent protein kinase (PKA) inhibitor H89 increases lysosomal V-ATPase activity
151 Preincubation with the protein kinase A (PKA) inhibitor H89 or (R(p))-cAMPS, but not with the ina
154 D98059), PI3 kinase inhibitor (LY294002), or PKA inhibitor (H89) blocks the nicotine-induced Bad phos
156 the eNOS promoter was decreased by NO* and a PKA inhibitor, H89, and increased by a PKA activator, di
157 ns, and Cx43 protein expression, whereas the PKA inhibitor, H89, inhibited the stimulatory effect of
158 Bad pathway after tFCI, we administered the PKA inhibitor, H89, into the mouse brain after tFCI.
163 d to control levels by the protein kinase A (PKA) inhibitor, H89, but H89 did not affect the fEPSPs i
165 d largely inhibited by the protein kinase A (PKA) inhibitors, H89 and myristoylated PKI(14--22) amide
166 tive PKA with targeted nuclear expression of PKA inhibitor had no effect on the subcellular location
168 -8220, a PKC inhibitor, and 2 microM H-89, a PKA inhibitor, had no effect in unlesioned controls and
169 ted with TGFbeta and this was inhibited by a PKA inhibitor, (ii) PKA was co-immunoprecipitated from c
171 ',5'-cyclic monophosphothioate (Rp-cAMPS), a PKA inhibitor, increased the period to 145 % of baseline
172 antagonized by a specific protein kinase A (PKA) inhibitor, indicating that the signaling pathway in
173 inhibit PKG, as these PKG inhibitors but not PKA inhibitors inhibit a different cGMP-induced intracel
174 H-89 and KT5720, two structurally different PKA inhibitors, inhibited LTD by more than 70% without a
175 (GFP)-tagged cAMP-dependent protein kinase (PKA) inhibitor, inhibits the ability of the permeant cAM
177 ld tolerance was only partly reversed by the PKA inhibitor KT-5720 at a dose previously cited by othe
178 on of IBa by ISO was partially reversed by a PKA inhibitor, KT 5720, or a PKC inhibitor, calphostin C
180 ssion was prevented by pretreatment with the PKA inhibitor KT5720 but not with the protein kinase G i
181 ced the level of phosphorylated PKA, and the PKA inhibitor KT5720 decreased, whilst the adenylate cyc
182 cyclase inhibitor 2',5'-dideoxyadenosine and PKA inhibitor KT5720 inhibited enhancement of phosphoryl
186 oxide (NO) donor glyco-SNAP1 is inhibited by PKA inhibitors KT5720, PKI, Rp-Br-cAMPS, and H89, but no
189 of LCA were blocked by the protein kinase A (PKA) inhibitor, KT5720 (0.5-1.0 microm) and the K(ATP) c
190 rginase was abolished by a protein kinase A (PKA) inhibitor, KT5720, and was down-regulated by tyrosi
191 ffects were prevented by a protein kinase A (PKA) inhibitor, KT5720, or by mutation of a single conse
193 d effect can be acutely reversed by applying PKA inhibitors, leading also to normalization of the spi
194 t importantly, it can be acutely reversed by PKA inhibitors, leading to recovery of KCa3.1 function a
197 was also inhibited by the protein kinase A (PKA) inhibitor, myristoylated PKI, but was not dependent
199 y between PKA and PKI in the presence of the PKA inhibitor N-[2-(p-bromocinnamylamino)ethyl]-5-isoqui
200 ase inhibitor zaprinast (20 microm) plus the PKA inhibitor N-[2-(p-bromocinnamylamino)ethyl]-5-isoqui
201 -N,N,N',N'-tetraacetic acid tetrakis and the PKA inhibitor N-[2-(p-bromocinnamylamino)ethyl]-5-isoqui
202 esponse to PKA activation was blocked by the PKA inhibitor N-[2-p-bromocinnamyl-amino) ethyl]-5-isoqu
203 d this was reversed by the protein kinase A (PKA) inhibitor N-[2-((p-bromocinnamyl)amino)ethyl]-5-iso
204 lerythrine, but not by the protein kinase A (PKA) inhibitor N-[2-(4-bromocinnamylamino)ethyl]-5-isoqu
205 dideoxyadenosine, with the protein kinase A (PKA) inhibitor N-[2-(p-Bromocinnamyl-amino)ethyl]-5-isoq
207 -4-fold by addition of the protein kinase A (PKA) inhibitors, N-(2-(methylamino)ethyl)-5-isoquinoline
209 al cultures was blocked by protein kinase A (PKA) inhibitor, occluded by PKA activator, and prevented
212 lls expressing GFP chimeras of either PKI (a PKA inhibitor) or a mutant PKA regulatory subunit relati
213 thelial cells (HAEC), pretreatment with H89 (PKA inhibitor) or siRNA knockdown of PKA-alpha decreased
214 kinase inhibitor, H-89, a protein kinase A (PKA) inhibitor, or tetradecylglycidate, a CPT-1 inhibito
215 ed adhesion was reversed by treatment with a PKA inhibitor, overexpression of PRKAR1beta, or expressi
216 euregulin-ErbB signaling was confirmed using PKA inhibitors, pathway-selective cAMP analogs, and natu
217 ibition was unaffected by cell dialysis with PKA inhibitor peptide (5 microM), and the PKA inhibitor
218 ntrolled by multiple classes of receptors, a PKA inhibitor peptide (PKIalpha) was developed and expre
219 itors of the PKA catalytic subunits (H89 and PKA inhibitor peptide 14-22) failed to abrogate the inhi
220 by Ang II was abolished by a combination of PKA inhibitor peptide 5-24 (5 microM) and PKC inhibitor
221 ylation was prevented by the addition of the PKA inhibitor peptide in the in vitro kinase assay.
224 tentiation in cells loaded with the specific PKA inhibitor peptide PKI(6-22) failed to be maintained.
229 lso blocked in B cells expressing a specific PKA inhibitor peptide, whereas in vivo expression of an
230 , is stimulated by cAMP, and is inhibited by PKA inhibitor peptide-(5-24), indicating that it is PKA.
235 yl cyclase stimulator forskolin and with the PKA inhibitor PKI suggest that Ca(2+)/CaM-activated CaN
241 forskolin, and a specific protein kinase A (PKA) inhibitor PKI 14-22-amide failed to block the effec
242 unit of T. cruzi (TcPKAc), a gene encoding a PKA inhibitor (PKI) containing a specific PKA pseudosubs
243 rbed flow in vivo, whereas inhibiting PKA by PKA inhibitor (PKI) injection enhanced PAK activation an
244 ist ICI118,551 or by inducible expression of PKA inhibitor (PKI) or of BCL2-associated death promoter
245 kage of PKA activity in COS-1 cells with the PKA inhibitor (PKI) prevented the 8-bromo-cAMP-mediated
246 ibitors H-89 and KT5720, overexpression of a PKA inhibitor (PKI), and in vitro PKA kinase assays show
247 ment of GCs with the PKA-selective inhibitor PKA inhibitor (PKI), the MEK inhibitor PD98059, or the r
249 KG) based on the findings that the selective PKA inhibitor, PKI, abolished the effects of SNAP and CN
251 HO cells expressing wild type GPIb-IX with a PKA inhibitor, PKI, reduced Ser(166) phosphorylation and
252 o-7874 or Go-6976, or with the myristoylated PKA inhibitor, PKI-(14-22)-amide failed to develop any t
258 denosine 3',5'-cyclic monophosphothionate, a PKA inhibitor, prevented ATPgammaS or PDBu activation of
259 kinase A (PKA) inhibitor peptide, a specific PKA inhibitor, prevented rescue of T cells by PTX, 8-bro
260 ting whether pre-treating mice with a PKC or PKA inhibitor prior to pellet implantation would prevent
264 A6, JAK2, STAT5, JNK1, or p38 siRNA and cAMP-PKA inhibitor reversed the repression of CRBP-I/RARalpha
265 We have previously reported that PKC or PKA inhibitors reversed morphine antinociceptive toleran
266 protein kinase C (PKC) or protein kinase A (PKA) inhibitors reversed morphine antinociceptive tolera
269 ts were centrally infused with the selective PKA inhibitor Rp-adenosine 3',5'-cyclic monophosphothioa
270 , D1/D5 dopaminerdic antagonist SCH23390, or PKA inhibitor Rp-cAMP and unaffected by PKC inhibitor Go
272 /D5 dopaminergic antagonist SCH23390, of the PKA inhibitor Rp-cAMP or of the PKC inhibitor Go6976, an
273 ed by beta-adrenoreceptor antagonists or the PKA inhibitor rp-cAMP, indicating transduction via the a
274 th PKA inhibitor peptide (5 microM), and the PKA inhibitor Rp-cAMPS (100 microM) did not reduce IK,AT
275 Bilateral intra-amygdalar infusions of the PKA inhibitor Rp-cAMPS (18 microg per side) given immedi
276 cellular protein kinase A with the selective PKA inhibitor Rp-cAMPS also disrupted acquisition, sugge
277 The beta-receptor blocker propranolol or PKA inhibitor Rp-cAMPS blocks the effects of isoproteren
278 ntra-amygdala, or intra-PAG infusions of the PKA inhibitor Rp-cAMPS on naloxone-precipitated withdraw
286 er, concomitant infusions of TSA with either PKA inhibitor, Rp-cAMPS, into CA1 or cAMP analog, 8Br-cA
287 AMP-induced sensitization was blocked by the PKA inhibitors, Rp-cAMP (1 mM) and H-89 (100 microM).
289 orbol myristate acetate were not affected by PKA inhibitors, suggesting that a different kinase(s) is
290 horylation, and this effect was prevented by PKA inhibitors, suggesting the involvement of PKA in ROL
292 ion of PKA, and persisted in the presence of PKA inhibitors, the KATP channel blocker tolbutamide, an
294 ide (NO*) and cAMP-dependent protein kinase (PKA) inhibitors up-regulate tumor necrosis factor alpha
295 , however, were not blocked when addition of PKA inhibitors was delayed as little as 15 min after BDN
298 lodynia was reversed if adenylate cyclase or PKA inhibitors were administered spinally 24 hr, but not
300 ta(2)AR agonists, cAMP-elevating agents, and PKA inhibitors were used to show that beta(2)AR stimulat
301 because similar inhibition was observed with PKA inhibitors, whereas enhancing PKA activity increased