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1 We show that JNKK2 is a highly specific JNK kinase.
2 ctivated protein kinases, including ERK1 and JNK kinase.
3 osphorylation of the upstream JNK activator, JNK kinase.
4 horylated the MAP kinase kinases, MEK 1, and JNK kinase.
5 the combined action of JAK, SRC, c-ABL, and JNK kinases.
6 pathophysiologic arm is mediated by p38 and Jnk kinases.
7 ments and in sustained activation of p38 and JNK kinases.
8 2/3 and activation of the downstream IKK and JNK kinases.
9 olving the convergent action of two distinct JNK kinases.
10 P3, UNC-16 physically interacts with JNK and JNK kinases.
11 (ERK1) and ERK2, p38, and c-Jun N-terminal (JNK) kinases.
12 iously identified c-Jun NH2-terminal kinase (JNK) kinase 1/mitogen-activated protein kinase (MAPK) ki
14 ctivation by MEKK2 was mediated by the MAPKK JNK kinase 2 (JNKK2) rather than by JNKK1 through format
15 ession of a catalytically inactive mutant of JNK kinase 2 and RNA interference of stress-activated pr
16 results demonstrate that cisplatin activates JNK kinase 3.8 +/- 0.2-fold more efficiently in DNA mism
19 n contrast, OPGL enhanced both NF-kappaB and JNK kinase activation and increased the expression of c-
20 g RNA knockdown established that the p38 and JNK kinase activation following DeltaE3L infection was d
23 tor activation in neurons, including PKC and JNK kinases activation, elevation of somatic and dendrit
27 or LY294002 decreased cell survival, Akt and JNK kinase activities, ets-2 phosphorylation, and Bcl-x
30 The PPP-CNP activated MLK3, its downstream JNK kinase activity, and down-regulated AKT pathway sign
32 ption factors responding to stress-activated JNK kinases and also for the Cdt1 licensing factor that
33 ally expressed, CIKS stimulates IKK and SAPK/JNK kinases and it transactivates an NF-kappaB-dependent
35 he Ras/mitogen-activated protein kinase, Rac/JNK kinase, and phosphatidylinositol 3-kinase (PI-3 kina
36 Rgr induces phosphorylation of ERKs, p38 and JNK kinases, and increases the levels of the GTP-bound f
37 urthermore, the activation of the ERK1/2 and JNK kinases, as well as the transcription factor NF-kapp
38 s activation of FGF receptors and of ERK and JNK kinases, because it can be blocked by inhibitors of
39 ciating c-Src tyrosine kinase and downstream JNK kinase by pharmacological and molecular means suppre
41 lator in the HPK1 --> TAK1 --> MKK4/SEK1 --> JNK kinase cascade and indicate the involvement of JNK i
44 and that the HGK --> TAK1 --> MKK4, MKK7 --> JNK kinase cascade may mediate the TNF-alpha signaling p
45 PB induction, nor is activation of the SAPK/JNK kinase cascade responsible for down-regulating PB re
47 nduce activation of c-Jun N-terminal kinase (JNK) kinase cascades, it is not known whether they utili
50 ed expression of MKP5, a JNK phosphatase, in JNK kinase-expressing cells decreased T81 phosphorylatio
51 tion of JNK1 and JNK2 genes or inhibition of JNK kinase function rendered Delta24RGD-treated cells re
52 nM), excellent selectivity against ROCK and JNK kinases (>400-fold), potent inhibition of cofilin ph
54 Also, we found that loss of ben, but not the JNK kinase hemipterous, resulted in an upregulation of h
55 odule, as it is blocked by null mutations in JNK kinase [hemipterous (hep)] and JNK [basket (bsk)].
56 s of Basket (Bsk), or of one of the upstream JNK kinases, Hemipterous or Mkk4, these axons overextend
59 protein kinase kinase inhibitors), SP600125 (JNK kinase inhibitor), and wortmannin (phosphatidylinosi
61 lls requires activation of a Ras/Rac1/MEKK-1/JNK kinase/JNK signal transduction leading to phosphoryl
63 K kinase 1 (MEKK1) activity, which activates JNK kinase (JNKK), the kinase that phosphorylates and ac
64 1 (MEKK1) which activates the JNK activator, JNK kinase (JNKK), was similarly activated by antigen st
65 ared by hep mutant animals, deficient in the JNK kinase (JNKK/MKK7) substrate for SLPR, suggesting th
72 mal JNK-scaffold POSH (Plenty-of-SH3s) and a JNK kinase kinase, TAK1, in regulating growth activation
73 es (MLKs) function as Jun-N-terminal kinase (JNK) kinase kinases to transduce extracellular signals d
76 sponse to T-cell activation, the Jun kinase (JNK) kinase MAP kinase kinase 7 (MKK7) is alternatively
77 KC, MLCK, cyclin G-associated kinase, EphA1, JNK kinase, MAP kinase 1), phosphatases (meprin, PTPK, p
78 s suggest that ligand-directed activation of JNK kinases may generally provides an alternate mode of
80 idence suggests two c-Jun N-terminal kinase (JNK) kinases, MKK4 and MKK7, transactivate JNK, in vivo
83 ated protein kinase kinase kinase 1 (MEKK1), JNK kinase, or JNK inhibits NF-kappaB activation by thio
84 as dominant-negative mutants of MAPK kinase, JNK kinase, or Ras completely blocked strain-dependent r
85 Transient expression of a kinase inactive JNK kinase partially inhibited induction of SM-alpha-act
86 assembly by promoting dissociation, while a JNK kinase pathway and AZ assembly proteins inhibit diss
87 Interestingly, our analysis reveals that the JNK kinase pathway plays a crucial role in the tyrosine
88 MEKK1, an upstream activator of the ERK and JNK kinase pathway, but not induced following p53 expres
90 hibitors to assess whether c-Jun N-terminal (JNK) kinases regulate hepatitis C virus (HCV) replicatio
91 mutations in Caenorhabditis elegans JNK and JNK kinases result in similar mislocalization of synapti
92 1-JNK/SAPK-c-Jun cascade (where JNKK/SEK1 is JNK kinase/SAPK kinase) was demonstrated by activation o
94 co-transfection with a constitutively active JNK kinase (SEK)-1 and suppressed by a dominant negative
96 for Rac1 in activation of the prodeath MLK3-JNK kinase signaling pathway and delayed neuronal cell d
100 s is regulated by Mg(2+), PI(3,5)P2, and P38/JNK kinases, thus paralleling regulation of TPC2 current
101 n component of AP-1; whilst agonists of SAPK/JNK kinases trigger transient N-terminal phosphorylation