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1 uct (+)-menthofuran and its intermediate (+)-pulegone).
2 in 16 steps from commercially available (R)-pulegone.
3 from the commercially available terpene (S)-pulegone.
4 uran itself might influence the reduction of pulegone.
5 -methylcyclohex-2-ene-1-one (1) from (R)-(+)-pulegone (3), proceeding in 44% overall yield, is descri
7 een accomplished in 10 steps each from R-(+)-pulegone, allowing assignment of the absolute configurat
9 ential oil were isomenthone, neo-isomenthol, pulegone and isomenthol, constituting 34.07%, 7.65%, 19.
10 tents of the potential hepatotoxic compounds pulegone and menthofuran were reduced by <=30 % and 10 %
12 coumarin, estragole, methyl-eugenol, (R)-(+)-pulegone and thujone were EU-regulated substances detect
13 f HeLa cells was dramatically increased with pulegone at a dose of 10 uM with no cytotoxic effect on
15 Similarly, the reaction of triply labeled pulegone clearly shows that the label in the product is
23 a demonstrate that the metabolic fate of (+)-pulegone is controlled through transcriptional regulatio
25 The ability to reduce both menthofuran and pulegone levels is of commercial significance in improvi
29 uced to (-)-menthone en route to menthol, by pulegone reductase (PR), or oxidized to (+)-menthofuran,
30 tain biosynthetic enzyme concentrations [(+)-pulegone reductase and (+)-menthofuran synthase], wherea
31 ed to secretory cell mitochondria, while (+)-pulegone reductase labeling occurred only in secretory c
33 s in all transformed plants, the flux of (+)-pulegone through PR correlated negatively with the essen
35 stry of P53 showed an increased apoptosis in Pulegone-treated cells compared to control and Cisplatin