ライフサイエンスコーパス: cell physiology

1 ore sensitive for microscopic studies (e.g., cell physiology).

2 usion) and pHi (a potent modulator of cancer cell physiology).

3 ng an important role for GATA6 in human beta-cell physiology.

4 potential to regulate almost every aspect of cell physiology.

5 nodes to understand normal and pathological cell physiology.

6 s and regulates multiple aspects of neuronal cell physiology.

7 ole in pancreatic development and adult beta-cell physiology.

8 ng waves have emerged as important themes in cell physiology.

9 dent influences of these two related RNAs on cell physiology.

10 NK pathway has no direct adverse effect on B cell physiology.

11 how that IL4I1 regulates multiple steps in B cell physiology.

12 tance of miR-650 in CLL biology and normal B-cell physiology.

13 rks and bundles that support many aspects of cell physiology.

14 ipid that is vital for many aspects of yeast cell physiology.

15 hosphate stress connects to other aspects of cell physiology.

16 deration for therapeutic development and NKT cell physiology.

17 ane is believed to play an important role in cell physiology.

18 rtant process involved in several aspects of cell physiology.

19 regulatory network that regulates bacterial cell physiology.

20 NA supercoiling that is important for normal cell physiology.

21 algal species to improve growth and to assay cell physiology.

22 olic pathways and as mediators of changes in cell physiology.

23 enin signaling and normal mammary epithelial cell physiology.

24 for numerous aspects of muscle and nonmuscle cell physiology.

25 nses to mechanical perturbation are vital to cell physiology.

26 lle and varying in location depending on the cell physiology.

27 y regulate downstream signaling pathways and cell physiology.

28 ll division, migration, and other aspects of cell physiology.

29 maintaining epithelial barrier function and cell physiology.

30 taxis is coordinated with dynamic changes in cell physiology.

31 llular membranes have important functions in cell physiology.

32 le essential roles in animal development and cell physiology.

33 membrane domains is necessary for excitable cell physiology.

34 ownregulation exerts a significant impact on cell physiology.

35 orphic organelles that have central roles in cell physiology.

36 quired for maintenance of normal endothelial cell physiology.

37 mber of genes critical in various aspects of cell physiology.

38 s measurements without perturbing the native cell physiology.

39 ed tumor antigens that interfere with normal cell physiology.

40 T to better understand how this toxin alters cell physiology.

41 that cytokine to broadly modify endothelial cell physiology.

42 , morphogenetic movements and alterations in cell physiology.

43 nd effects on cellular protein synthesis and cell physiology.

44 face receptors that have key roles in normal cell physiology.

45 ential for its roles in lipid metabolism and cell physiology.

46 assium channels (Kir) play critical roles in cell physiology.

47 lved in multiple aspects of animal and plant cell physiology.

48 ntegrating environmental stimuli that affect cell physiology.

49 nown to have an important regulatory role in cell physiology.

50 e facilitated by a better understanding of L-cell physiology.

51 e the contribution of these channels to beta-cell physiology.

52 egulatory roles in all aspects of eukaryotic cell physiology.

53 ined effects of telomerase overexpression on cell physiology.

54 roteins that allow regulation in response to cell physiology.

55 d suggest that Sp2 may play a unique role in cell physiology.

56 as a paracrine factor and affects granulosa cell physiology.

57 f the protein interaction network underlying cell physiology.

58 f such control for the maintenance of normal cell physiology.

59 rify the role of CLCAs in disease and normal cell physiology.

60 intricate effects of HIV-1 infection on host cell physiology.

61 l stimuli and regulate distinct aspects of B cell physiology.

62 ects of salt, indicating that ethanol alters cell physiology.

63 ions of CD19, which are crucial for normal B cell physiology.

64 in eukaryotic cell membranes, thus affecting cell physiology.

65 ptides and thereby play an essential role in cell physiology.

66 n some cancers has such a profound effect on cell physiology.

67 ts of acute exposure to aflatoxins on airway cell physiology.

68 e and observation conditions on tobacco BY-2 cell physiology.

69 be regulated and coupled to other aspects of cell physiology.

70 critical roles in virtually every aspect of cell physiology.

71 olding, protein transport and degradation in cell physiology.

72 gets becoming signaling platforms crucial in cell physiology.

73 al and most evolutionarily conserved part of cell physiology.

74 n delivery pathway active in development and cell physiology.

75 e role of membrane rafts in other aspects of cell physiology.

76 omplex 2 (PRC2) is an essential regulator of cell physiology.

77 ons have profound effects on many aspects of cell physiology.

78 s a role for MAGE encoded proteins in normal cell physiology.

79 s that have protean effects on smooth muscle cell physiology.

80 cells, connecting protein biochemistry with cell physiology.

81 nslational modification mechanism underlying cell physiology.

82 ferating cells requires major alterations in cell physiology.

83 rization and bundling play a central role in cell physiology.

84 e' signals that alter gene expression and/or cell physiology.

85 anges to the cytoskeleton, thereby impacting cell physiology.

86 ion homeostasis is essential for eukaryotic cell physiology.

87 ed, potentially fundamental aspects of brain cell physiology.

88 e to efficient protein biogenesis and proper cell physiology.

89 RC2 exerts over diverse aspects of eukaryote cell physiology.

90 ks between tRNA biology and other aspects of cell physiology.

91 mutations through ploidy-specific changes in cell physiology.

92 ale, adaptive changes in gene expression and cell physiology.

93 w perspective on Cdc42 as key regulator of B cell physiology.

94 L. monocytogenes pathogenesis and bacterial cell physiology.

95 lar responses controlling diverse aspects of cell physiology.

96 dynamics can provide molecular insights into cell physiology.

97 NA, demographic variables, and primary human cell physiology.

98 assess how materials and technologies affect cell physiology.

99 to the effects of macromolecular crowding on cell physiology.

100 damental process involved in many aspects of cell physiology.

101 luate the impact of systems and materials on cell physiology.

102 lular proteins is critical for understanding cell physiology.

103 relevant stressor affects downstream target cell physiology.

104 nvestigate the role of a rhomboid protein in cell physiology, a glpG mutant of E. coli was constructe

105 lar metabolism, suggesting a major change in cell physiology allowing the bacterium to grow in the ho

106 lular Ca2+ ([Ca2+](i)) can profoundly affect cell physiology, altering programs of gene expression, c

107 syl)ation of mammalian proteins to influence cell physiology and adaptive immunity.

108 (PRCP), or angiotensinase C, in endothelial cell physiology and angiogenesis.

109 After an update on B cell physiology and antibody generation, the 2015 Beaune

110 recently been revisited in the context of B-cell physiology and antigen presentation.

111 rs of kinesin would be valuable as probes of cell physiology and as potential therapeutics.

112 onse linking ribosome homeostasis with basic cell physiology and behaviour.

113 le methods for cell concentration can affect cell physiology and bias readouts of cell behavior and f

114 experience light-induced damage that alters cell physiology and confounds observations.

115 (CREM) alpha has important roles in normal T cell physiology and contributes to aberrant T cell funct

116 pled receptors (GPCRs) are key regulators of cell physiology and control processes ranging from gluco

117 s were significantly more toxic in assays of cell physiology and death.

118 Study of normal cell physiology and disease pathogenesis heavily relies

119 advances in our deep understanding of normal cell physiology and disease pathogenesis.

120 mits our ability to understand their role in cell physiology and disease.

121 microbiology, physics, analytical chemistry, cell physiology and ecology.

122 a powerful strategy for pathogens to subvert cell physiology and establish infection.

123 oenvironment ex vivo that is able to sustain cell physiology and function in order to generate the de

124 elial cell lining but also induce changes in cell physiology and function such as cell shape, membran

125 d the effects of their interactions on guard cell physiology and function.

126 xic, and that low oxygen tension () alters B cell physiology and function.

127 icable to define lineage specificity in both cell physiology and human disease contexts.

128 trol by Cdc123 may prove relevant for normal cell physiology and human health.

129 ant functions for some of these molecules in cell physiology and human pathology.

130 s that play key roles in multiple aspects of cell physiology and identity, including regulation of al

131 positive and negative growth factors play in cell physiology and in human diseases.

132 Studies of the cell physiology and indeed pathophysiology of ER-PM junc

133 new insight into how folate influences human cell physiology and may have implications for our unders

134 e, we identify a molecular link between hair cell physiology and melanocyte function.

135 However, the host cell physiology and metabolic requirements supporting ba

136 ion factor Egr1 controls multiple aspects of cell physiology and metabolism.

137 resentation will illuminate novel aspects of cell physiology and might lead to improved vaccine desig

138 mplications with regard to both normal glial cell physiology and pathogenesis.

139 rget types can provide in-depth insight into cell physiology and pathology, but remains challenging o

140 r environment is involved in many aspects of cell physiology and pathology.

141 hanical signaling plays an important role in cell physiology and pathology.

142 egulation and mitochondrial function, and to cell physiology and pathophysiology, the structure and c

143 pled receptors (GPCRs) play crucial roles in cell physiology and pathophysiology.

144 ent findings on the effects of aneuploidy on cell physiology and proliferation.

145 map the impact of cost/benefit tradeoffs on cell physiology and regulation.

146 o elucidate how signaling dynamics determine cell physiology and represents a paradigm shift from des

147 ey lessons on the interaction between single-cell physiology and selection that should inform the des

148 an unexpected role for DISC1 in normal beta-cell physiology and suggest that DISC1 dysregulation con

149 ction by revealing critical roles in Schwann cell physiology and suggest that PNH in SJS originates d

150 O-GlcNAcylation in various aspects of tumor cell physiology and suggest that this modification may s

151 rial function is an important determinant of cell physiology and survival, yet little is known about

152 en demonstrated to play an important role in cell physiology and the development of cardiovascular an

153 ies, including having a key role in normal T-cell physiology and the development of certain cancers.

154 erse functional properties, with a role in T-cell physiology and the development of certain human can

155 from humans, and because a pig's epithelial cell physiology and the mean length of its estrous cycle

156 insights into lacrimal gland stem/progenitor cell physiology and their potential for treating severe

157 Attempts to reprogram epithelial cell physiology and thereby susceptibility to chlamydial

158 RANKL-RANK inhibition could interfere with B cell physiology and thereby trigger immunologic side-eff

159 ion that exofacial CA is critical for cancer cell physiology and they establish the immunotherapeutic

160 ortant regulatory role for PPARgamma in beta-cell physiology and thiazolidinedione pharmacology of ty

161 tightly coordinated and coupled with overall cell physiology and thus, must be viewed in a broader co

162 Although the role of STAT3 in cell physiology and tissue development has been largely

163 Correct polarization is crucial for normal cell physiology and tissue homeostasis, and is lost in c

164 viruses in vertebrate cells strongly affects cell physiology and ultimately leads to development of a

165 ng stoichiometry and its ion-to-ATP ratio on cell physiology, and also demonstrate the bioenergetic c

166 tor receptor (EGFR) is central to epithelial cell physiology, and deregulated EGFR signaling has an i

167 sion of GP1,2 at high levels disrupts normal cell physiology, and EBOV uses an RNA-editing mechanism

168 cts of RbpA truncations on transcription and cell physiology, and indicate additional functions for R

169 This process participates in many aspects of cell physiology, and is conserved in all eukaryotes.

170 pathway connects adipocyte function to beta cell physiology, and manipulation of this molecular swit

171 ilized as vaccines, as tools to dissect host cell physiology, and more recently for the development o

172 RNA helicase A (RHA) plays numerous roles in cell physiology, and post-transcriptional activation of

173 s pathway is critically important for normal cell physiology, and recent advances in our understandin

174 rs of this superfamily have crucial roles in cell physiology, and some of the transporters are linked

175 sive macroautophagy can seriously compromise cell physiology, and thus, it needs to be properly regul

176 n mechanisms to various aspects of excitable cell physiology are incompletely understood.

177 Imbedded in immune cell physiology are metabolic pathways and metabolites t

178 otein-protein interactions in G(12)-mediated cell physiology are poorly understood.

179 Proteins essential to normal cell physiology are usually glycosylated and variation i

180 couple the rate of transposition to the host cell physiology as both of these proteins are integrated

181 emical role of the FA core complex in normal cell physiology as well as in the development of the FA

182 oducts interact can help to elucidate normal cell physiology as well as the genetic architecture of p

183 mercury methylation due to its influence on cell physiology (as a potential nutrient) and its influe

184 fied in the CNS, including neural progenitor cell physiology, astrocyte and microglia activation, neu

185 d provide insights into genetic variation in cell physiology between yeast strains.

186 Scaling changes can affect cell physiology, but problems associated with WGD in lar

187 nase A (PKA) is known to play a role in beta cell physiology, but the role of its anchoring protein i

188 MicroRNAs (miRNAs) regulate cell physiology by altering protein expression, but the

189 of B. dermatitidis thus co-opts normal host cell physiology by exploiting CR3 to subdue TNF-alpha pr

190 e studied the role of Akt in pancreatic beta cell physiology by generating transgenic mice expressing

191 e explore the impact of cryptic prophages on cell physiology by precisely deleting all nine prophage

192 ondrial calcium uptake has a central role in cell physiology by stimulating ATP production, shaping c

193 ng protein that regulates critical events in cell physiology by the regulation of pre-mRNA splicing a

194 abolic reaction of fundamental importance in cell physiology, can be regulated.

195 effects of autonomic nervous input on islet cell physiology cannot be studied in the pancreas.

196 f target genes and their widespread roles in cell physiology, circadian rhythms are also modulated by

197 e cell density plays a major role in sessile cell physiology, commencing with the first stage of biof

198 would account for several aspects of T(reg) cell physiology, differentiation and stability.

199 t is, whether RANKL-RANK signaling affects B cell physiology directly or the observed defects are sec

200 trates to effect a myriad of changes in host cell physiology during infection.

201 the function of carbonic anhydrases (CAs) in cell physiology emphasizes the role of membrane-bound CA

202 Autophagy plays a central role in cell physiology, energy and metabolism, and cell surviva

203 In this article we review normal red blood cell physiology; etiologies of anemia in the intensive c

204 d and open new paths for research in the red cell physiology field.

205 transcription, indicating global changes in cell physiology following JunB induction.

206 d much of what we do know is based on single-cell physiology from anesthetized subjects.

207 oter activities, which should be relevant in cell physiology given that local changes in chromosomal

208 ermore, we demonstrate that these changes in cell physiology have a differential effect on the epider

209 substrates in cells, and key roles in yeast cell physiology have been uncovered by introducing subun

210 Auditory system and hair cell physiology, histology, and anatomy studies reveal n

211 ir well-known function in maintaining normal cell physiology, how inorganic elements are relevant to

212 play an important role in the regulation of cell physiology in a wide variety of excitable and nonex

213 d its intracellular processes in relation to cell physiology in healthy and diseased states.

214 T cells, leading to the assumption that iNKT cell physiology in human and mouse is similar.

215 een caveolin/caveolae expression and altered cell physiology in IPAH contrast with previous results o

216 With cell physiology in its usual operating regime, dynamics

217 loning of a novel protein required for Clara cell physiology in mouse lung development.

218 rther avenues to probe and direct changes in cell physiology in response to dynamic biochemical signa

219 enetic technology to beneficially manipulate cell physiology in the context of neuronal regeneration

220 by the lack of methods to interrogate single-cell physiology in vivo.

221 Purkinje cell physiology, in contrast, was normal in AS mice as s

222 intics, as it plays critical roles in normal cell physiology, in removal of drugs from cells, and pot

223 esses involved in signaling, cell cycle, and cell physiology including detoxification, protein biogen

224 ted kinase (ERK) controls various aspects of cell physiology including proliferation.

225 (CaCCs) perform many important functions in cell physiology including secretion of fluids from acina

226 ranscription to regulate numerous aspects of cell physiology, including cell growth, senescence, stre

227 CaCCs perform important functions in cell physiology, including regulation of epithelial secr

228 hers has revealed a multiplicity of roles in cell physiology, including regulation of intracellular C

229 active lipid involved in multiple aspects of cell physiology, including signaling and membrane traffi

230 How these signals are integrated so that cell physiology is altered remains unclear.

231 and systems that interact with cells impact cell physiology is crucial for the development and ultim

232 acellular concentration of macromolecules on cell physiology is increasingly appreciated, but its imp

233 as calcium ion channels, but their impact on cell physiology is not fully known.

234 mechanism by which osmotic stress modulates cell physiology is not fully understood and may involve

235 le of miRNAs in regulation of differentiated cell physiology is not well established.

236 his phenomenon and its overall importance to cell physiology is not well understood.

237 echanism(s) by which heparin alters vascular cell physiology is not well understood.

238 atory mechanisms controlling intestinal stem cell physiology is of great importance.

239 The role of ion channels in cell physiology is regulated by processes occurring afte

240 p between receptor endocytic trafficking and cell physiology is unclear.

241 a suitable animal model for studies on hair cell physiology, it is advisable to consider that the ag

242 a novel tool/compound for investigating beta-cell physiology, KATP channel gating, and a new chemical

243 should consider that monocyte and macrophage cell physiology may be affected by this system.

244 el for studying how abnormalities in Schwann cell physiology may facilitate and sustain chronic pain.

245 ovide chemical tools to study the changes in cell physiology mediated by these lipids, three new meta

246 effect of deposited cell density on E. coli cell physiology, metabolic activity, and gene expression

247 ltiple other chromosomal genes implicated in cell physiology, multiple drug resistance and virulence.

248 e formation of ROS and their consequences on cell physiology of Escherichia coli.

249 ease in Ad binding, reflecting the impact of cell physiology on the function of CAR and the potential

250 Using in vitro whole-cell physiology, optogenetics, and pharmacology, we dete

251 a useful pharmacological tool to study beta-cell physiology or even open a new therapeutic avenue fo

252 respiratory enzymes did not detectably alter cell physiology or mitochondrial function.

253 RK pathway signaling, but their role(s) in B-cell physiology or pathology are unknown.

254 e have been no functional descriptions of M3 cell physiology or synaptic inputs.

255 late the host ubiquitin system to alter host cell physiology or the location, stability, or function

256 sessed pancreatic development and adult beta-cell physiology phenotypes.

257 hat such contacts play more general roles in cell physiology, pointing to the existence of additional

258 um of the placenta, though having many basic cell physiology properties similar to those of other tra

259 cle we review major open questions in single-cell physiology, provide a brief introduction to the tec

260 Aside from maintaining normal and adapted cell physiology, recent studies indicate that PGC-1 coac

261 pose that the effects of intact alpha(2)M on cell physiology reflect the degree of penetration of act

262 zed that the overall effects of alpha(2)M on cell physiology reflect the integrated activities of mul

263 otypes and the consequences of aneuploidy on cell physiology remain poorly understood.

264 romise for biomedicine, yet their effects on cell physiology remain poorly understood.

265 The function of this protein in normal cell physiology remains largely unknown.

266 This organism can modify many aspects of cell physiology, rendering experiments that are conducte

267 e increasing use of DNA microarrays to probe cell physiology requires methods for visualizing differe

268 Exploitation of this technology for studying cell physiology requires the further development of phot

269 d a complex dependence of this virus on host cell physiology, requiring a wide variety of molecules a

270 r PKD-mediated regulation of a key aspect of cell physiology, secretion, and innate immunity in vivo.

271 t DnaA plays an important role in modulating cell physiology, separate from its role in replication i

272 M) phosphoinositides play essential roles in cell physiology, serving as both markers of membrane ide

273 ic pHluorin proved to be a valuable tool for cell physiology studies.

274 reviously described virus-induced changes in cell physiology, such as apoptosis, autophagy, and inhib

275 rial cell clearly plays an important role in cell physiology, systematic studies to uncover asymmetri

276 t METH has a stronger effect on DAT-mediated cell physiology than AMPH, which may contribute to the e

277 Subtle differences oppose CD4+ to CD8+ T cell physiologies that lead to different arrays of effec

278 as sustained changes in gene expression and cell physiology that do not involve permanent genetic ch

279 SYT-alpha and SYT-beta are important for NE cell physiology, that one or both are integral membrane

280 Despite its potentially important role in cell physiology, the mechanisms that regulate tescalcin

281 In terms of whole cell physiology, the predominant effect of cooling is to

282 SHIM may become a valuable tool for probing cell physiology, the small signal size would limit the n

283 REC domains control cell physiology through diverse mechanisms, many of whic

284 n kinase C (PKC) family of enzymes regulates cell physiology through phosphorylation of serine and th

285 We investigated if ECs influence beta-cell physiology through regulating insulin action and de

286 uch as HIV-1, may similarly subvert normal T cell physiology to allow efficient propagation between c

287 e cytosol of host cells, where they modulate cell physiology to favor the pathogen.

288 omplete understanding of the relationship of cell physiology to genomic structure is desirable.

289 ue set of effectors that subvert normal host cell physiology to promote pathogenesis.

290 oribonucleases may have broad implication in cell physiology under various growth conditions.

291 ted during the CE experiments and that basal cell physiology was not perturbed prior to cell lysis.

292 address how individual ClpP proteases impact cell physiology, we constructed a S. aureus mutant expre

293 h significantly facilitates studies of coral cell physiology, we demonstrate in vitro excretion of EC

294 the immediate consequences of aneuploidy on cell physiology, we identified mechanisms that eliminate

295 nvestigate the function of TRPC1 proteins in cell physiology, we studied heterologously expressed TRP

296 l consequences of VacA infection on parietal cell physiology were studied using freshly isolated rabb

297 ansformation by v-Jun induces alterations in cell physiology which antagonize ERK signalling at multi

298 xamine VRAC diversity in normal and diseased cell physiology, which is key to exploring novel therape

299 nary" and "direct" approaches to engineering cell physiology, which should improve our understanding

300 of electron transport routes is crucial for cell physiology, yet the factors that control the predom