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1  CH3COCF3 (trifluoroacetone), and C6H5COCH3 (acetophenone).
2 resulted in cAMP responses to the M71 ligand acetophenone.
3  beta-scission to yield phenoxyl radical and acetophenone.
4 nds 1-8 are significantly more reactive than acetophenone.
5 thanol but not of (R)-(+)-1-phenylethanol to acetophenone.
6 luding carvone, eugenol, cinnamaldehyde, and acetophenone.
7 onses of various ORs, including MOR161-2, to acetophenone.
8 enzene ring will change the odour percept of acetophenone.
9 ine precursors dissolved in benzaldehyde and acetophenone.
10 odor and less similar to the background odor acetophenone.
11 catalysts for the selective hydrogenation of acetophenone.
12 erted to the corresponding 1,1-disubstituted acetophenone.
13 ped models to predict receptor activation by acetophenone.
14 ty for the room temperature hydrogenation of acetophenone.
15  as the reaction would not proceed with just acetophenone.
16  scale of their addition to benzaldehyde and acetophenone.
17 rresponding homoallenic alcohol product from acetophenone.
18 y enantioselective in the hydrosilylation of acetophenone.
19 responses to a structurally similar odorant, acetophenone.
20 e will not be present for imines formed from acetophenone.
21 g odorant, or had nonassociative pairings of acetophenone.
22 eater responses to methyl salicylate than to acetophenone.
23 ioning or conditioned place preference using acetophenone.
24 eadily detect other odors in the presence of acetophenone.
25 ical case of the molecular radical cation of acetophenone.
26 nthesis sequence starting from p-substituted acetophenones.
27 e functionalization of the sp(3) C-H bond of acetophenones.
28 mitant halide migration to afford alpha-halo acetophenones.
29 n C-H activation chemistry; benzaldehyde and acetophenone/1-phenylethanol mixtures, respectively, are
30 s, i.e., 3,5-bis[4-(chlorosulfonyl)phenyl]-1-acetophenone (16), 3,5-bis(chlorosulfonyl)-1-acetophenon
31 acetophenone (16), 3,5-bis(chlorosulfonyl)-1-acetophenone (17), and 3,5-bis(4-(chlorosulfonyl)phenylo
32 , and 3,5-bis(4-(chlorosulfonyl)phenyloxy)-1-acetophenone (18) via a sequence of reactions, involving
33 e range of isostructural alpha-(ortho-tolyl)-acetophenone (1a) and alpha-(ortho-tolyl)-para-methylace
34                                          The acetophenone 2, on the other hand, forms only traces of
35 nt of base the benzyl ketones 1a and 1b, the acetophenone 2, the arylacetaldehyde 1c, and the methyl
36  linker 12, transmetalation with lithiated 4-acetophenone, 3-acetophenone, and 4-(4'methoxy)biphenyl
37 e superior to DNA matrices (e.g., trihydroxy-acetophenone, 3-hydroxypicolinic acid, picolinic acid).
38 ones resulted in a low yield of phlorin from acetophenone (5%) and no detectable phlorin from benzoph
39                         The para-substituted acetophenone 9 could be anchored to the resin through ei
40             Early postnatal odor exposure to acetophenone, a ligand of M72 olfactory sensory neurons,
41 dent glycosyltransferase (UGT) to facilitate acetophenone accumulation in the plant.
42 he positive-ion mode, using 2,4,6-trihydroxy acetophenone-ammonium citrate matrix.
43                              Hydroxy-methoxy acetophenone, an inhibitor of NADPH-dependent oxidase, a
44 base of glycine with o-[N-alpha-pycolylamino]acetophenone and (S)- or (R)-3-(E-enoyl)-4-phenyl-1,3-ox
45  we identified sets of ORs for two odorants, acetophenone and 2,5-dihydro-2,4,5-trimethylthiazoline (
46 the charged trimethylammonio trifluoromethyl acetophenone and acetylthiocholine.
47                    We show that the odorants acetophenone and benzaldehyde are agonists for the M71 O
48 actors) were determined for methylhexanoate, acetophenone and ethyl dodecanoate.
49 ion of the triple bond with the formation of acetophenone and imidazoline fragments.
50 etophenone on MOR23 neurons and no effect of acetophenone and lyral on the M71 population.
51                   MOR161-2 responded to both acetophenone and methyl salicylate in vivo.
52 uction mass spectrometry (MIMS) system, with acetophenone and toluene serving as model compounds.
53 pared in a four-step synthesis starting from acetophenone and tropylium substrates.
54 omatic bis(sulfonyl chlorides) containing an acetophenone and two sulfonyl chloride groups, i.e., 3,5
55 e reaction to synthesize 1,3,5-trizines from acetophenones and amidines.
56                 We show that levels of these acetophenones and transcripts of the gene responsible fo
57 smetalation with lithiated 4-acetophenone, 3-acetophenone, and 4-(4'methoxy)biphenyl followed by Mits
58 ormation and consumption of 1-phenylethanol, acetophenone, and an as yet unidentified compound were o
59 mined by the oxidation of 1-phenylethanol to acetophenone, and by isozyme 1A2 in the oxidation of all
60 ylbenzoate, geraniol, cis-alpha-bergomotene, acetophenone, and ethyl dodecanoate.
61 enantioselective allylation of benzaldehyde, acetophenone, and methylethyl ketone under Nozaki-Hiyama
62 tiomeric alkyl phosphonates, trifluoromethyl acetophenones, and carboxyl esters.
63                           For benzophenones, acetophenones, and dibenzyl ether, which are all prefere
64                                              Acetophenones are phenolic compounds involved in the res
65 for electrophilic ketones more reactive than acetophenone as the reaction would not proceed with just
66 yl isobutyl ketone, heptanone, nonanone, and acetophenone as the test compounds.
67 nverted to benzoate (benzoyl coenzyme A) via acetophenone as transient intermediate.
68 base of glycine with o-[N-alpha-picolylamino]acetophenone, as a nucleophilic glycine equivalent, and
69 ectroscopic data of symmetric and asymmetric acetophenone azines are presented in support of this des
70 Y = MeO (7), Y = PhO (8)) para-disubstituted acetophenone azines X-C6H4-CMe=N-N=CMe-C6H4-Y and of mod
71 ically on ethylbenzene, 1-phenylethanol, and acetophenone, but these activities were absent in benzoa
72              Host cell reactivation of UVB + acetophenone-, but not of UVC + photolyase-treated plasm
73 o generate a Pd-alkylperoxide that liberates acetophenone by at least two competitive processes, one
74 nto the catalytic cycle for hydrogenation of acetophenone by Noyori's catalyst, in the presence or ab
75 re p-methylstyrene was oxidized to 4'-methyl-acetophenone by PdCl(2) on the interior of a thimble and
76  The mechanism of catalytic hydrogenation of acetophenone by the chiral complex trans-[RuCl2{(S)-bina
77  P450-catalyzed 1-phenylethanol oxidation to acetophenone by the thiadiazoles does not correlate with
78 ded ketones, acetone, t-butyl methyl ketone, acetophenone, cyclohexyl methyl ketone, and cyclohexyl p
79           In the fragmentation of protonated acetophenones, deacetylation proceeds to give an interme
80    A variety of ketone substrates, including acetophenone derivatives and alpha,beta-unsaturated cycl
81 mide, and a series of 4'- and 2'-substituted acetophenone derivatives by SmI(2) were determined in dr
82 on and deamination to form the corresponding acetophenone derivatives in the absence of an amine acce
83 e highly enantioselective hydrosilylation of acetophenone derivatives without assistance of an additi
84 ion by laser flash photolysis of alpha-azido acetophenone derivatives, 1.
85 s but gives moderate results for more stable acetophenone derivatives.
86                  A study of para-substituted acetophenone-derived bis(enones) reveals that substrate
87 ver, these mice cannot detect the M71 ligand acetophenone despite the observation that virtually all
88 tamate receptor 2 (mGlu2), phenyl-tetrazolyl acetophenones, e.g. 1-(2-hydroxy-3-propyl-4-[4-[4-(2H-te
89 raining with amyl acetate (Experiment 1) and acetophenone (Experiment 2).
90 aldehyde from benzphetamine N-demethylation, acetophenone from 1-phenylethanol oxidation, cyclohexano
91 e sequence of novel steps commencing from an acetophenone-functionalized resin.
92 razone derivative of tert-butyldimethylsilyl acetophenone gave 2-tert-butyldimethylsilyl-1-phenyldiaz
93     A series of diversely substituted 2-aryl acetophenones have been obtained in good yields by this
94 for the asymmetric transfer hydrogenation of acetophenone in basic isopropanol.
95 yed similar activity to complex 4, affording acetophenone in high yield.
96 responses to a structurally similar odorant, acetophenone, in the same Obp genes.
97 l odor exposure to the M72 glomerulus ligand acetophenone increased the strength of interglomerular l
98     Benzyl alcohol, 2-phenylethanol, 2-amino acetophenone, indole, 1-hexanol and nonanoic acid exhibi
99 arkably, these reaction conditions converted acetophenone into p-terphenyl (10%) and (E)-1,4-diphenyl
100                              We suggest that acetophenone is formed from the palladium enolate interm
101  the substituent group on the phenyl unit of acetophenone is investigated in detail.
102            We also showed that 2,6-dihydroxy-acetophenone is superior to 2,5-dihydroxybenzoic acid as
103 zo[1,2-a]pyridines from 2-aminopyridines and acetophenones is achieved by a tandem, one-pot process s
104        Our results show that accumulation of acetophenones is an efficient resistance mechanism again
105 ously studied reductions of benzaldehyde and acetophenone, is also controlled, early along the reacti
106 t protein (GFP) and M71-GFP mice to lyral or acetophenone, ligands for MOR23 or M71, respectively.
107                         During photolysis of acetophenone O-allylcarbamoyl oxime, the corresponding o
108 tor pair lyral-MOR23: there was no effect of acetophenone on MOR23 neurons and no effect of acetophen
109 ons of phenyl azide to enamines derived from acetophenone or phenylacetaldehyde and piperidine, morph
110 d shared amino acid residues specific to the acetophenone or TMT receptors and developed models to pr
111 rom the O-alkyl group), whereas O-tert-butyl acetophenone oxime (4) did not.
112 tophenone oximes all reacted readily to give acetophenone oxime as the major product (as well as an a
113 t palladium-catalyzed ortho-C-H arylation of acetophenone oxime ethers with aryl pinacol boronic este
114 ilar to the results obtained for a series of acetophenone oxime ethers.
115  O-methyl (1), O-ethyl (2), and O-benzyl (3) acetophenone oximes all reacted readily to give acetophe
116 diacal that undergoes cleavage to form 2 and acetophenone (Phi approximately 0.04).
117 ect (CE) around 290 nm is contributed by the acetophenone pi --> pi* transition of the ABC-flavanone
118 t SBW attack were reported to accumulate the acetophenones piceol and pungenol constitutively in thei
119 ned by varying the initial concentrations of acetophenone, precatalyst, base, and acetone and by vary
120 bstantial amounts of tert-butyldimethylsilyl acetophenone, presumably by reaction of the intermediate
121 elds in a single step from readily available acetophenones, propiophenones, and phenylacetophenones.
122 , the presence of a 2'-fluoro substituent on acetophenone provides a highly ordered transition state
123 GT5b in the biosynthesis of the glycosylated acetophenone pungenin in white spruce.
124                                          The acetophenones pungenol and piceol commonly accumulate in
125 utants of different polarities (naphthalene, acetophenone, quinoline, and 2-naphthol), and of the org
126  of Pcl with 2-amino-benzaldehyde or 2-amino-acetophenone reagents proceeds to near completion at neu
127                     Among the 2'-substituted acetophenone series, the presence of a fluoro, amino, or
128 peroxide leads to [Cu(II)]-OCMe(2)Ph (3) and acetophenone suggesting the intermediacy of the PhMe(2)C
129 etric glycolate alkylation using a protected acetophenone surrogate under solid-liquid phase-transfer
130 nd subsequent radical recombination yielding acetophenone-tethered thioortho esters 4, alpha-[3-(2-al
131 is associated with higher response scores to acetophenone than the 610A allele, but with lower expres
132                                When an odor (acetophenone) that activates a known odorant receptor (O
133 time to be good quenchers of triplet excited acetophenone, the main sensitized photoreaction of 7Z in
134 pyne and allene, the addition of acetone and acetophenone to methyl propargyl and methyl allenyl ethe
135                                Conversion of acetophenone to methyl salicylate was observed in the me
136 t CYP1a2 affects OR activation by converting acetophenone to methyl salicylate.
137 ession of Obp99a, suggesting that binding of acetophenone to Opb99a might limit rather than facilitat
138  unique annulation that knits together three acetophenones to construct cyclopropanes.
139 eave only 6-4PP on the plasmid), or to UVB + acetophenone (to induce only CPD).
140 zed aldol condensation of benzaldehydes with acetophenones, to produce chalcones, is the final loss o
141 olysis of vinylazide 1, which has a built-in acetophenone triplet sensitizer, in argon-saturated tolu
142  7 as a precatalyst for the hydrogenation of acetophenone under mild conditions.
143  sensitivity of the F1 and F2 generations to acetophenone was complemented by an enhanced neuroanatom
144 se nasal cavity, the response of MOR161-2 to acetophenone was reduced, while that to methyl salicylat
145 eptor (specifically activated by the odorant acetophenone) were behaviorally trained with olfactory-d
146          Enantioselective aldol reactions of acetophenone with beta,gamma-unsaturated alpha-ketoester
147 plets were generated by emulsifying water in acetophenone with SPAN 80 surfactant.
148  catalytic hydrogenation of benzaldehyde and acetophenone with the Shvo hydrogenation catalysts were
149 studies have shown that this reaction yields acetophenones with high selectivity.
150 pling of ortho-[2-(4-methoxylphenyl)-alkynyl]acetophenones with ortho-alkynylbenzaldehydes affording

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