ライフサイエンスコーパス: hyperosmotic stress

1 the second messengers in plant responses to hyperosmotic stress.

2 of SPAK to increase activity of NKCC1 during hyperosmotic stress.

3 g the response of mature collecting ducts to hyperosmotic stress.

4 the mechanism by which WNK1 is regulated by hyperosmotic stress.

5 he internal K+ concentration as a measure of hyperosmotic stress.

6 t are rapidly and transiently induced during hyperosmotic stress.

7 nifest by subsequent apoptosis, to sustained hyperosmotic stress.

8 on of ERK1/2 and p38MAPalpha/beta kinases by hyperosmotic stress.

9 ot prevent FAK phosphorylation stimulated by hyperosmotic stress.

10 volved in control of apoptosis during severe hyperosmotic stress.

11 le of RBOH-dependent ROS, specifically under hyperosmotic stress.

12 the response partially overlaps with that to hyperosmotic stress.

13 and tyrosine phosphorylation in response to hyperosmotic stress.

14 ng that Orb6p has a role in cell response to hyperosmotic stress.

15 uited to this PKN1-positive compartment upon hyperosmotic stress.

16 ally expressed in response to dehydration or hyperosmotic stress.

17 manner to a vesicular compartment following hyperosmotic stress.

18 nd, is required for short-term adaptation to hyperosmotic stress.

19 by hypoosmotic stress, but were unchanged by hyperosmotic stress.

20 pensatory genes in response to extracellular hyperosmotic stress.

21 th of proline-overaccumulating cells in mild hyperosmotic stress.

22 tivation mechanism fail to proliferate after hyperosmotic stress.

23 ine stresses, whereas levels increased after hyperosmotic stress.

24 cell growth and polarity under conditions of hyperosmotic stress.

25 nthesize phosphoinositides during periods of hyperosmotic stress.

26 pathway that may lead to plant adaptation to hyperosmotic stress.

27 mponent of the p38 MAPK-mediated response to hyperosmotic stress.

28 igated the role of p53 in mIMCD3 response to hyperosmotic stress.

29 ulons closely co-operate in the managment of hyperosmotic stress.

30 ctivated protein (MAP) kinase in response to hyperosmotic stress.

31 s environmental stress conditions, including hyperosmotic stress.

32 hanisms for regulation of gene expression by hyperosmotic stress.

33 ullary cells are uniquely exposed to extreme hyperosmotic stress.

34 ined when the HeLa cells are challenged with hyperosmotic stress.

35 ation of Xenopus p38 isoforms in response to hyperosmotic stress.

36 e rapid synthesis of glycerol in response to hyperosmotic stress.

37 d widespread transcriptional repression upon hyperosmotic stress.

38 om adaptation to inflammation in response to hyperosmotic stress.

39 at human cells survive gradual but not acute hyperosmotic stress.

40 -2 targets DNMBP to P-body condensates under hyperosmotic stress.

41 nitudes after preexposure to an intermediate hyperosmotic stress.

42 nd indirect targets of SchA post-exposure to hyperosmotic stress.

43 ptible to DNA (de)methylation in response to hyperosmotic stress.

44 1 (SOD1) and peroxiredoxin-4 (PRDX4) during hyperosmotic stress.

45 duced cytosolic Ca(2+) signal in response to hyperosmotic stress.

46 creased sensitivities to SDS, Congo red, and hyperosmotic stress.

47 ol accumulation, and enhanced survival under hyperosmotic stress.

48 lling, but does not affect MAPK responses to hyperosmotic stress.

49 serve interphase microtubules in response to hyperosmotic stress.

50 kinase II (CK2) in the cellular response to hyperosmotic stress.

51 ces a transcriptional program in response to hyperosmotic stress.

52 ich decrease under proline limitation and/or hyperosmotic stress.

53 d to maintain interphase microtubules during hyperosmotic stress.

54 its importance for the cellular response to hyperosmotic stress.

55 ch becomes negative as they recover from the hyperosmotic stress.

56 ive of the in vivo changes that occur during hyperosmotic stress.

57 onal up-regulation is necessary to cope with hyperosmotic stress.

58 l microtubules in plant cells that are under hyperosmotic stresses.

59 es plant response to abscisic acid (ABA) and hyperosmotic stresses.

60 m murine renal IM cells responds to moderate hyperosmotic stress (540 mosmol/kg) by activation of G(2

61 than the apoptotic stimulus, staurosporine, hyperosmotic stress activated caspase-3.

62 The effect of hyperosmotic stress-activated Plk3 and increased gammaH2

63 Our results for the first time reveal that hyperosmotic stress-activated Plk3 elicited gammaH2AX.

64 We show that hyperosmotic stress activates the protein kinase R (PKR)

65 eased dissolved solute in their environment (hyperosmotic stress), all eukaryotic cells respond by ra

66 tment of primary cortical neurons exposed to hyperosmotic stress also decreases apoptosis.

67 Pretreatment with hyperosmotic stress also prevented the activation of S6K

68 ts were unable to accumulate ABA following a hyperosmotic stress, although their basal ABA level was

69 inase Pho85/CDK5 provides protection against hyperosmotic stress and acts before long-term adaptation

70 preferentially to OSTF1 target genes during hyperosmotic stress and compensate for reduced rates of

71 lock allows anticipation and preparation for hyperosmotic stress and desiccation that begin at sunris

72 s) phase-separates in mammalian cells during hyperosmotic stress and dissolves upon isosmotic rescue

73 maintaining bacterial cell viability during hyperosmotic stress and functions by co-transporting bet

74 ranscriptional response when fluctuations of hyperosmotic stress and glucose deprivation occurred in

75 ocation, Hrp1p redistribution is specific to hyperosmotic stress and is only reversed after stress re

76 growth (FG) pathways are activated following hyperosmotic stress and nutrient deprivation, respective

77 o rapamycin, high concentrations of calcium, hyperosmotic stress and SchA was involved in iron metabo

78 udy budding yeast in dynamic environments of hyperosmotic stress and show how the corresponding signa

79 ated tiRNAs and cell survival in response to hyperosmotic stress and suggest a novel cellular complex

80 AMPK in H-2Kb cells is also activated by hyperosmotic stress and the mitochondrial uncoupling age

81 otect cells from excessive Na(+) loading and hyperosmotic stress and to protect the animal from hyper

82 ular crowding, we reduced the cell volume by hyperosmotic stress and used an IDP as a crowding sensor

83 lpha3 positively mediates plant responses to hyperosmotic stresses and that increased PLDalpha3 expre

84 efect in fibroblasts, less responsiveness to hyperosmotic stress, and reduced persistence in tissues

85 a fundamental role in protecting cells from hyperosmotic stress, and that the pathway(s) that mediat

86 T cells under oxidative stress but not under hyperosmotic stress, and they were high and unchanging i

87 une cell function and cellular adaptation to hyperosmotic stress, as a possible cause of this syndrom

88 tion of 40-kD protein kinase is specific for hyperosmotic stress, as hypotonic stress does not activa

89 s and promotes G(2)/M arrest during moderate hyperosmotic stress but not in isosmotic controls.

90 ons abolished the response to proline and to hyperosmotic stress but not to Mg(2+).

91 ction of promoter-proximal termination under hyperosmotic stress, but paused transcripts from TATA bo

92 bcellular compartments that protects against hyperosmotic stress by generating osmolytes and metaboli

93 rst time that human ALDH7A1 protects against hyperosmotic stress by generating osmolytes and metaboli

94 ned the hypothesis that IVD cells respond to hyperosmotic stress by increasing the concentration of i

95 is known about the mechanisms of sensing the hyperosmotic stress by the innate immune system.

96 Our results for the first time reveal that hyperosmotic stress can activate the Plk3 signaling path

97 ion difference of the samples in response to hyperosmotic stress can potentially provide us with a un

98 Hyperosmotic stress caused by drought and salinity is a

99 ogic implication of osmotic imbalance (i.e., hyperosmotic stress caused by intracellular over-accumul

100 Hyperosmotic stress caused by NaCl, LiCl, or sorbitol in

101 The combination of sisomicin and hyperosmotic stress caused consistent and synergistic ot

102 In yeast, hyperosmotic stress causes an immediate dissociation of

103 Hyperosmotic stress causes cell shrinkage, perturbs cell

104 y and pulsed field gel electrophoresis, that hyperosmotic stress causes DNA damage in the form of dou

105 Hyperosmotic stress causes growth arrest possibly via pr

106 We show here that under severe hyperosmotic stress, cells enter a transient hibernation

107 liquid-liquid phase separation (LLPS) under hyperosmotic stress conditions allows cells to react to

108 snrk2.1/2/3/4/5/6/7/8/9/10 grew poorly under hyperosmotic stress conditions but was similar to the wi

109 udomonas aeruginosa grown under steady-state hyperosmotic stress conditions showed an up-regulation o

110 ect to partial repression by succinate under hyperosmotic stress conditions, in contrast to strong re

111 centration of glycerol within the cell under hyperosmotic stress conditions.

112 35 as a key regulator of the matrisome under hyperosmotic stress conditions.

113 lar signal modulating solute synthesis under hyperosmotic stress conditions.

114 e accumulation of glycerol in the absence of hyperosmotic stress conditions.

115 In response to hyperosmotic stress, control cells from all zones decrea

116 ATF4 was not translated during hyperosmotic stress despite an increase in eIF2alpha pho

117 Hyperosmotic stress during G(1) phase specifically inhib

118 Salmonella seems to experience hyperosmotic stress during infection because osmotically

119 The results presented here demonstrate that hyperosmotic stress elicited increases in ATF-2 phosphor

120 If the severity of hyperosmotic stress exceeds the tolerance limit of this

121 ediated targeting of DNMBP to P-bodies under hyperosmotic stress facilitates the activation of Cdc42

122 ivating a complex array of signaling events, hyperosmotic stress fails to up-regulate PtdIns 3,5-P(2)

123 is required for optimal invasive growth and hyperosmotic stress (high-osmolarity glycerol [HOG]) sig

124 plete loss in NKCC activation in response to hyperosmotic stress, immunoprecipitation of NKCC reveale

125 rked PtdIns 3,5-P(2) increase in response to hyperosmotic stress in differentiated 3T3-L1 adipocytes.

126 , we show that ROS production in response to hyperosmotic stress in embryonic cells of the alga Fucus

127 Skb1 homolog, Skb1Hs, is also stimulated by hyperosmotic stress in fission yeast, providing evidence

128 the present study, we highlight the role of hyperosmotic stress in inducing human alpha-syn to aggre

129 )-2Cl(-) cotransporter (NKCC) by insulin and hyperosmotic stress in L6 rat skeletal muscle cells.

130 s in 3D culture to study the consequences of hyperosmotic stress in the skin.

131 d p38 demonstrated activation of p38 MAPK by hyperosmotic stress in vitro and in vivo.

132 The adaptive response to hyperosmotic stress in yeast, termed the high osmolarity

133 In intact cells, hyperosmotic stress increased phosphorylated PKCdelta, i

134 Hyperosmotic stress increases phosphoinositide levels, r

135 in NMuMg mammary epithelial cells exposed to hyperosmotic stress induced by the organic osmolyte sorb

136 Hyperosmotic stress induced by treatment of Swiss 3T3 ce

137 We found that hyperosmotic stress induced DNA-double strand breaks and

138 Our study results here demonstrate that hyperosmotic stress induced H2AX phosphorylation (gammaH

139 the authors explore the mechanism involving hyperosmotic stress-induced activation of c-Jun/AP-1 thr

140 The effect of hyperosmotic stress-induced activation of Plk3 on ATF-2

141 ation of H2AX at serine 139 was catalyzed by hyperosmotic stress-induced activation of Plk3.

142 lternative signaling mechanism that involves hyperosmotic stress-induced activation of the Plk3 pathw

143 ylation of c-Jun by Plk3 was responsible for hyperosmotic stress-induced apoptosis, which was indepen

144 k3 mRNA effectively diminished the effect of hyperosmotic stress-induced ATF-2 phosphorylation.

145 rexpression of Plk3 and its mutants enhanced hyperosmotic stress-induced ATF-2 phosphorylation.

146 Hyperosmotic stress-induced c-Jun phosphorylation was en

147 colocalized with gammaH2AX in the nuclei of hyperosmotic stress-induced cells.

148 n Plk3 mRNA effectively reduced gammaH2AX in hyperosmotic stress-induced cells.

149 , a transcription factor reported to mediate hyperosmotic stress-induced cytoprotection in renal medu

150 tridium difficile toxin B potently inhibited hyperosmotic stress-induced FAK tyrosine phosphorylation

151 We found in hyperosmotic stress-induced HCE cells that Plk3 transfer

152 It was found that hyperosmotic stress-induced increases in the phosphoryla

153 he contribution of ArPIKfyve-PIKfyve for the hyperosmotic stress-induced rise in PtdIns 3,5-P(2).

154 of Ssh1p as two early successive events in a hyperosmotic stress-induced signaling cascade in plants.

155 ssion of K+ channel activity did not prevent hyperosmotic-stress-induced JNK activation.

156 Unlike yeast, where hyperosmotic stress induces a dramatic increase in phosp

157 Hyperosmotic stress induces a rapid rise in intracellula

158 However, severe or chronic hyperosmotic stress induces apoptosis, which involves cy

159 In budding yeast, hyperosmotic stress induces Ca(2+) release from the vacu

160 Hyperosmotic stress induces rapid redistribution of WNK1

161 Here we find that hyperosmotic stress induces strong phosphorylation of Ss

162 l cell line, we originally demonstrated that hyperosmotic stress induces transcription of the aldose

163 These results suggest that hyperosmotic stress induces volume change in IVD cells a

164 tein kinase Hog1 is activated in response to hyperosmotic stress, inducing the production and retenti

165 Activation of Pak2 in response to hyperosmotic stress inhibits cap-dependent, but not IRES

166 Hyperosmotic stress inhibits translocation through Rck2-

167 phorylation switch is involved in perceiving hyperosmotic stress, initiating and amplifying osmotic s

168 The cellular response to hyperosmotic stress involves rapid efflux of water and c

169 Here we show that the response to mild hyperosmotic stress involves regulation of the phosphory

170 cts and show that as a cell is compressed by hyperosmotic stress it becomes progressively more rigid.

171 increasing levels of cytoplasmic K(+) during hyperosmotic stress latter via its C-terminal domain and

172 Hyperosmotic stress leads to increased intracellular K(+

173 neous exposure of L6 myotubes to insulin and hyperosmotic stress led to an additive increase in NKCC-

174 Stimulating transgenic cells with hyperosmotic stress led to another 2-fold increase, sugg

175 In contrast to isoosmotic conditions, hyperosmotic stress led to the proper folding and proces

176 Exposure of plant tissues to hyperosmotic stress led to the rapid phosphorylation of

177 rophosphates also responded within 30 min of hyperosmotic stress: levels of bisdiphosphoinositol tetr

178 C1 and functional activation of NKCC1 during hyperosmotic stress, measured as bumetanide-sensitive ba

179 ression of N17 Rac only slightly altered the hyperosmotic stress-mediated localization of phosphoryla

180 Overexpression of N17 RhoA did not reduce hyperosmotic stress-mediated localization of phosphoryla

181 such as protein misfolding and aggregation, hyperosmotic stress, membrane fracturing, and changes in

182 Reductions in turgor caused by either hyperosmotic stress, nystatin, or removal of cell wall a

183 binding partners in human skin wounds, where hyperosmotic stress occurs as a consequence of excessive

184 Hyperosmotic stress occurs in several diseases, but its

185 Hyperosmotic stress of rat brain slices, produced by add

186 The effect of hyperosmotic stress on rose bengal staining in vitro was

187 Identification of [PP]2-InsP4 as a sensor of hyperosmotic stress opens up a new area of research for

188 rast, caffeine had no effects on melphalan-, hyperosmotic stress-, or IL-1beta-induced activation of

189 ally sumoylated proteins during heat stress, hyperosmotic stress, oxidative stress, nitrogen starvati

190 d to improve bacterial growth recovery under hyperosmotic stress, partly through stabilization of the

191 Elevated extracellular solute concentration (hyperosmotic stress) perturbs cell function and stimulat

192 Hyperosmotic stress, produced by addition of sorbitol to

193 Interestingly, upon hyperosmotic stress, RAF12 rapidly forms reversible cond

194 Hyperosmotic stress rapidly induces the activation of SN

195 nuous 6-base pair substitutions identified a hyperosmotic stress-regulated element that is GC-rich an

196 fied four major DNA-protein complexes in the hyperosmotic stress-regulated element that, by competiti

197 These results strongly suggest that the hyperosmotic stress resistance of renal inner medullary

198 nstrate a new role for Skb1 as a mediator of hyperosmotic stress response in fission yeast.

199 work reveals a novel CK2 function during the hyperosmotic stress response that promotes cell-to-cell

200 le for Skb1-related proteins as mediators of hyperosmotic stress response, as well as mechanisms invo

201 ogression with morphological changes, and in hyperosmotic stress response.

202 otein kinase (Sgk) is a new component of the hyperosmotic stress response.

203 d MEK1 are involved in the regulation of the hyperosmotic stress response.

204 lar turgor-sensing mechanisms might regulate hyperosmotic stress responses both in yeast and plants.

205 mbers, and the function of PLD activation in hyperosmotic stress responses has remained elusive.

206 Exposure of immature T-cells to hyperosmotic stress resulted in a rapid, synchronous, an

207 Hyperosmotic stress resulted in cell shrinking within a

208 own of storage oil and are more resistant to hyperosmotic stress, salt stress, oxidative stress, free

209 i2hai1hai2 quadruple mutant displays reduced hyperosmotic stress sensitivity and partially constituti

210 Here we show that hyperosmotic stress signaling induced by sorbitol disrup

211 Thus, the Ran system is a target of hyperosmotic stress signaling, and cells use protein loc

212 M2-MEKK3 pathway that has been implicated in hyperosmotic stress signaling.

213 We show that proline can protect cells from hyperosmotic stress similar to the osmoprotection in pla

214 Hyperosmotic stress-stimulated FAK phosphorylation at Ty

215 ression of the N17 mutant of Cdc42 disrupted hyperosmotic stress-stimulated FAK Tyr-397 localization

216 the p38 MAPK signaling pathway mediates the hyperosmotic stress stimulation of sgk gene expression.

217 Cdc42 inhibits both processes in response to hyperosmotic stress, suggesting that Cdc42 has a role in

218 For such cells to survive hyperosmotic stress, systematic genetic analysis ruled o

219 s more sensitive to ABA and more tolerant to hyperosmotic stress than wild-type plants.

220 After a 10 min exposure to hyperosmotic stress the levels of PtdIns(3,5)P(2) rise 2

221 In fact, during hyperosmotic stress the vacuole morphology of wild-type

222 When cells were exposed to hyperosmotic stress, the MORN peptide redistributed from

223 physiological changes resulting from imposed hyperosmotic stress, thereby offering a clear visualizat

224 Organisms, almost universally, adapt to hyperosmotic stress through increased accumulation of or

225 These results reveal hyperosmotic stress to be a potent activator of caspase-

226 Plk3 was activated by extracellular hyperosmotic stress to directly phosphorylate c-Jun in t

227 These effects correlate with the ability of hyperosmotic stress to interfere with protein traffickin

228 In the present study, we determined if hyperosmotic stress to rat hippocampal slices activates

229 ce to translational inhibitors, and enhanced hyperosmotic stress tolerance.

230 when the transfected cells are subjected to hyperosmotic stress (total approximately 30-fold).

231 s activated through hormonal stimulation and hyperosmotic stress via a protein kinase C (PKC) delta-m

232 Its regulation by hyperosmotic stress was dependent on the kinases p38 and

233 of activation, the response of gamma-PAK to hyperosmotic stress was examined.

234 ts interactome and substrates in cells under hyperosmotic stress, we performed a BioID screen using m

235 [PP](2)-InsP(4) levels normally seen during hyperosmotic stress were attenuated by 2-(2-chloro-4-iod

236 Plants experience hyperosmotic stress when faced with saline soils and pos

237 function of the inflammasome as a sensor of hyperosmotic stress, which is crucial for the induction

238 el role of c-Rel in the adaptive response to hyperosmotic stress, which is inhibited via a PACT/PKR-d

239 Formed within seconds of hyperosmotic stress, YAP condensates compartmentalized t