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1 ase which converts farnesyl pyrophosphate to farnesol.
2 o farnesal, which is subsequently reduced to farnesol.
3 ed by altering both endogenous and exogenous farnesol.
4 e which received a control injection without farnesol.
5 s inhibited by adding either alpha factor or farnesol.
6 nation of palmitate and of the sesquiterpene farnesol.
7 uired ergosterol for growth and produced E,E-farnesol.
8 gs treated with zaragozic acid A or rats fed farnesol.
9 % starting from commercially available (E,E)-farnesol.
10 terpenes, such as citronellol, geraniol, and farnesol.
11 did aggravate the fungal apoptotic effect of farnesol.
12 but was able to target to the cytoplasm with farnesol.
13 catalyze the interconversion of farnesal and farnesol.
14 ed in the presence of geranylgeranol but not farnesol.
15 d by the C. albicans quorum-sensing molecule farnesol.
16 become diploid could derive from its use of farnesol.
17 induction of inflammatory gene expression by farnesol.
20 Mice receiving C. albicans intravenously and farnesol (20 mM) orally had enhanced mortality (P < 0.03
21 tion to the acyclic allylic alcohols (2Z,6E)-farnesol (6.7%) and nerolidol (3.6%), five cyclic sesqui
22 cAMP-Efg1 signalling cascade is inhibited by farnesol, a C. albicans autoregulatory factor, and small
23 ctivity of 3OC12HSL is compared with that of farnesol, a C. albicans-produced molecule also with a C1
24 e restores LTP to wild-type levels; however, farnesol, a chemically related compound, does not substi
25 que modulation of N-type calcium channels by farnesol, a dephosphorylated intermediate of the mammali
26 th animal and human arteries have shown that farnesol, a natural 15-carbon (C15) isoprenoid, is an in
27 ted reductase degradation by the addition of farnesol, a natural product of mevalonate metabolism, to
28 his inoculation releases the inhibition from farnesol, a quorum-sensing molecule of C. albicans, that
29 y redirecting the mevalonate pathway towards farnesol accumulation to the detriment of the accumulati
41 eceptor that mediates attraction behavior to farnesol and demonstrates an effective approach to deorp
42 reover, we show that lipid alcohols, such as farnesol and detoxification products of PUFA- and choles
44 eral cAMP-controlled outputs are affected by farnesol and dodecanol, our findings suggest that these
54 lative Th1-inclination property of menthone, farnesol and oridonin may be applied to improve Th2-skew
55 secretion ratios, suggesting that menthone, farnesol and oridonin may have a relative Th1-inclinatio
58 the substrate, and in the case of C(73-84), farnesol and palmitate oxidation was inhibited by 1 and
61 ndida albicans secretes micromolar levels of farnesol and that accumulation of farnesol in vitro prev
62 attraction behavior to low concentrations of farnesol and that Or83c receptor mutants are defective f
63 ls and raise the possibility that endogenous farnesol and the mevalonate pathway are implicated in ne
64 This mutant (KWN2) produced six times less farnesol and was ca. 4.2 times less pathogenic than its
66 mpounds include certain sterols, oxysterols, farnesol, and geranylgeraniol, as well as the diphosphat
67 c terpenoid polyalkenes, including geraniol, farnesol, and geranylgeraniol, providing an efficient an
68 d -deficient terpenes derived from geraniol, farnesol, and nerol, thereby enabling the effective synt
69 y were partially reversed in the presence of farnesol, and treatment of mesothelioma cells with a spe
70 Because germ-tube formation is inhibited by farnesol, another quorum-sensing molecule, this process
72 further evidence that the in vivo effects of farnesol are physiologically meaningful and specific for
73 eine, 1,4-diphenyl-2-butene, and trans,trans-farnesol are shown to inhibit competitively human, horse
78 ssion in recombinant yeast cells established farnesol as the preferred substrate of the FOLK-encoded
80 t (1) that leads to selective epoxidation of farnesol at the 6,7-position, remote from the hydroxyl d
81 ation of MrBI-1 reduced fungal resistance to farnesol but not to hydrogen peroxide, suggesting that M
83 ays, we now show that the pathway derivative farnesol causes Hmg2p to undergo a change to a less fold
85 n Candida albicans, exposure to the oxylipin farnesol causes the regulation of specific genes involve
86 chemical structures were tested: trans,trans-farnesol, cis-nerolidol, (-)-alpha-bisabolol, trans-beta
87 of the sesquiterpenic compounds trans, trans-farnesol, cis-nerolidol, alpha-humulene and guaiazulene,
89 tification and characterization of an insect farnesol dehydrogenase (AaSDR-1) that oxidizes farnesol
92 n, growth and development were impaired in a farnesol-dependent manner when A. nidulans was co-cultiv
93 d polyketide aromatization of a trans, trans-farnesol-derived beta,delta-diketodioxinone into the cor
94 esol, then to farnesoic acid, and finally to farnesol-derived dicarboxylic acids (FDDCAs) which would
95 ently synthesized by anionic coupling of two farnesol-derived diepoxides, which have arisen from elec
99 e IL-12/IL-10 milieu restores the ability of farnesol-differentiated DC to activate invariant NKT, Th
101 e of this study was to determine the role of farnesol during infection with a well-established mouse
102 ectedly, at the levels detected (25-50 muM), farnesol enhanced S. mutans-biofilm cell growth, microco
107 f Nicotiana tabacum cell cultures to utilize farnesol (F-OH) for sterol and sesquiterpene biosynthesi
111 of lovastatin with geranylgeraniol (GGOH) or farnesol (FOH) to investigate the role of protein prenyl
115 was reversed by geranylgeraniol, but not by farnesol, further confirming that inhibition of geranylg
116 titate incorporation of exogenously provided farnesol, geranylgeraniol, and unnatural analogs of thes
117 farnesol synthesis, and relationships among farnesol, germ tube formation and hyphal maintenance.
119 An alpha-phosphono lactone derivative of farnesol has been prepared, in both racemic and nonracem
121 nsible for the sequential phosphorylation of farnesol have not been identified and the physiological
124 mice (n = 40) injected with 1.0 ml of 20 mM farnesol i.p. had enhanced mortality (P < 0.03), and the
125 er capacity against DPPH, while trans, trans-farnesol (IC50=1.81mM) and cis-nerolidol (IC50=1.48mM) w
127 nal experiments demonstrated the presence of farnesol in the brain (rodents and humans) at physiologi
129 In this study we examined the effect of farnesol in the filamentous fungus Aspergillus nidulans.
130 levels of farnesol and that accumulation of farnesol in vitro prevents the yeast-to-mycelium convers
139 ckdown of MEK1/2 or MSK1 expression inhibits farnesol-induced expression of CXCL3, IL-1alpha, and COX
140 We provide evidence indicating that the farnesol-induced phosphorylation of p65/RelA at Ser(276)
142 of human lung adenocarcinoma H460 cells with farnesol induces the expression of a number of immune re
143 h transcriptional and functional assays that farnesol influences several signaling pathways during DC
144 It was further demonstrated that AFC and farnesol inhibited KCl and NaF-induced contractions, sug
147 The latter is triggered by the release from farnesol inhibition of Cup9 degradation and consequently
151 rnesol dehydrogenase (AaSDR-1) that oxidizes farnesol into farnesal, a precursor of JH, in the CA.
153 Based on these results, we conclude that farnesol is a nonsterol, mevalonate-derived product that
159 that the induction of inflammatory genes by farnesol is mediated by the activation of the NF-kappaB
162 Arabidopsis harbors one paralog of VTE5, farnesol kinase (FOLK) involved in farnesol phosphorylat
163 hese questions, we confirmed the presence of farnesol kinase activity in Arabidopsis (Arabidopsis tha
164 unction mutations in the FOLK gene abolished farnesol kinase activity, caused an abscisic acid-hypers
165 These observations demonstrate a role for farnesol kinase in negative regulation of abscisic acid
166 falciparum-infected erythrocytes with [(3)H]farnesol labels 50- and 22-28-kDa proteins, whereas [(3)
167 these enzymes do not explain differences in farnesol levels implicating involvement of additional fa
170 om these studies showed that apigenin and tt-farnesol may enhance the cariostatic effectiveness of fl
171 Taken together, these data suggest that farnesol may play a role in disease pathogenesis, either
173 rovide molecular evidence for a link between farnesol metabolism, abiotic stress signaling and flower
174 These results suggest that oxidation of farnesol might be a rate-limiting step in JH III synthes
175 The activation of the NF-kappaB pathway by farnesol might be part of a prosurvival response during
176 netheless, the molecular mechanisms by which farnesol modulates DC differentiation and maturation rem
178 NAD(+)-dependent dehydrogenase that oxidizes farnesol more efficiently than other prenyl alcohol subs
180 ersible, dose-dependent inhibitory effect of farnesol on L-type Ca2+ currents (IC50 = 2.2 microM).
182 ns grown with intermediate concentrations of farnesol or dodecanol indicated a link between cells wit
186 ducing stimuli, grew as yeast in medium with farnesol or dodecanol; the heat shock sensitivity of the
188 uman keratinocytes (NHK) treated with either farnesol or JH, even at low calcium concentrations (0.03
189 oleic acid), farnesoid X-activated receptor (farnesol or juvenile hormone III), or liver X receptor (
191 ontrast, isoprenoids, such as nerolidol, cis-farnesol, or geranylgeraniol, or metabolites in the chol
192 een identified and the physiological role of farnesol phosphorylation has not been fully elucidated.
196 and Th2 cytokines, mice were pretreated with farnesol prior to intravenous infection with a sublethal
197 peritoneal macrophages were pretreated with farnesol prior to stimulation with IFN-gamma plus lipopo
199 P. aeruginosa, suggesting that the amount of farnesol produced by the fungus is sufficient to impact
202 acterized LysR binding site, suggesting that farnesol promoted a non-productive interaction between P
204 th 1,4-diphenyl-2-butene or with trans,trans-farnesol provide molecular insights into these specifici
205 ar pools of geranylgeranyl pyrophosphate and farnesol pyrophosphate and thereby inhibits both geranyl
206 enoid geranylgeraniol, but not the 15-carbon farnesol, raising the possibility that the nonsterol pot
207 stions, including the existence of potential farnesol receptors and transporters, regulation of farne
213 uncation and deletion experiments revealed a farnesol-responsive region (-2452 to -1880 base pairs (b
214 the AP-1 site at -2116 to -2110 bp abolished farnesol responsiveness, identical to effects by peroxis
215 atin-treated cells, geranylgeraniol, but not farnesol, restored replication complex assembly and vira
221 to chocolate, but not lavender, butanol, or farnesol, so that an interaction of route and odorant ma
222 mobility shift assays showed that, like PQS, farnesol stimulated PqsR binding to the pqsA promoter at
224 nt by numerous criteria, highly specific for farnesol structure, and requires an intact Hmg2p sterol-
225 ol receptors and transporters, regulation of farnesol synthesis, and relationships among farnesol, ge
227 detected in kidneys from mice receiving i.p. farnesol than in those from mice receiving control i.p.
229 or farnesyl diphosphate is its conversion to farnesol, then to farnesoic acid, and finally to farneso
231 DPH, the purified CYP4C7 metabolized (2E,6E)-farnesol to a more polar product that was identified by
234 d with mammalian enzymes, the ability to use farnesol to label both farnesyl and geranylgeranyl moiet
235 Finally, direct addition of trans,trans-farnesol to the culture medium caused the rapid inductio
237 ed in explants incubated with clofibrate and farnesol together in suboptimal concentrations which alo
239 a pathway is linked to muscle aging and that farnesol treatment can restore muscle functionality in a
240 d receptor mRNA was not detected in NHK, but farnesol treatment increased activities of both a PPAR r
243 urthermore, the increase in PPRE activity by farnesol was dependent upon PPARalpha in CV-1 cells.
247 of urinary dicarboxylic acids from rats fed farnesol was virtually identical to that produced by tre
249 ulans does not secrete detectable amounts of farnesol, we propose that it responds to farnesol produc
250 e dimorphic fungus Candida albicans secretes farnesol, which acts as a quorum-sensing molecule and pr
252 responsible for catalyzing the production of farnesol, which in turn dictates the aromatic diversity
253 The C. albicans quorum sensing molecule farnesol, which inhibits Cyr1 and represses filamentatio
254 formate and the presence of Candida-derived farnesol, which is commonly known to exhibit antibacteri
257 osed models showing possible interactions of farnesol with a protected Thr side chain and backbone NH
260 all chimeric proteins catalyzed oxidation of farnesol with formation of 9-hydroxyfarnesol and farneso
261 ncubation with geranylgeraniol, but not with farnesol, with concurrent reversal of the inhibition of