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1 to epoxypropane followed by carboxylation to acetoacetate.
2 evels ( approximately 10% yield) relative to acetoacetate.
3 secondary product formed by the reduction of acetoacetate.
4  of the carbon nucleophilic lipid metabolite acetoacetate.
5  were identified as beta-hydroxybutyrate and acetoacetate.
6 of the enamine or an imine tautomer produces acetoacetate.
7 ding an allene (2,3-butadienoate) to produce acetoacetate.
8 similarly to rat islets but formed much more acetoacetate.
9 ates acetone and HCO3(-) to form the product acetoacetate.
10 uctive cleavage and carboxylation to produce acetoacetate.
11 ardial oxidation of beta-hydroxybutyrate and acetoacetate.
12 results in the conversion of epoxypropane to acetoacetate.
13 leavage of HMG-CoA to produce acetyl-CoA and acetoacetate.
14 e is dependent on the presence of Mg(2+) and acetoacetate.
15 ading capacity in the presence or absence of acetoacetate.
16 t cleavage of HMG-CoA to form acetyl-CoA and acetoacetate.
17 he condensation of acetone and CO(2) to form acetoacetate.
18 oxide ring opening and carboxylation to form acetoacetate.
19 oxylation to form acetone and CO(2); and (4) acetoacetate/(14)CO(2) exchange to form (14)C(1)-acetoac
20 ated increased acetate, adenosine, xanthine, acetoacetate, 3-hydroxybutyrate and betaine in alcohol-f
21 emonstrated that high glucose (25 mm) and/or acetoacetate (4 mm) increased reactive oxygen species, d
22 se plus insulin (40 microU/ml), glucose plus acetoacetate (5 mM), or glucose plus insulin and acetoac
23 tate 4a, N-tosyl carbamate 5a, TBDMS 6a, and acetoacetate 7a) undergo metathesis without competing si
24 counter elevated levels of the ketone bodies acetoacetate (AA), beta-hydroxybutyrate (BHB), and aceto
25 U937 cells were cultured with ketone bodies (acetoacetate [AA] and beta-hydroxybutyrate [BHB]) in the
26                          Hydroxybutyrate and acetoacetate (AC), alone or in combination, either faile
27 vels were associated with elevated levels of acetoacetate (AcAc) and beta-hydroxybutyrate (BHB).
28 ketone bodies beta-hydroxybutyrate (BHB) and acetoacetate (AcAc) support mammalian survival during st
29                                    A one-pot acetoacetate acylation/decarboxylation/cyclodehydration
30  biotinylated capture probe, the Friedlander-acetoacetate adduct can be trapped and purified directly
31 d the labeling of the ketone bodies [1-(13)C]acetoacetate and [1-(13)C]beta-hydroxybutyryate, without
32 erized and demonstrated to cleave HMG-CoA to acetoacetate and acetyl-CoA with catalytic and affinity
33 oduction from glycine and conversion between acetoacetate and B-OH-butyrate, were assigned higher wei
34                          The time courses of acetoacetate and beta-hydroxybutyrate formaton indicate
35  T1D is associated with both hyperketonemia (acetoacetate and beta-hydroxybutyrate) and hyperglycemia
36 on of propylene oxide (epoxypropane) to form acetoacetate and beta-hydroxybutyrate.
37 esis of the northern half based on nerol and acetoacetate and chromium(II)-mediated Reformatsky react
38 oacetate/(14)CO(2) exchange to form (14)C(1)-acetoacetate and CO(2).
39 topropylthio)ethanesulfonate; 2-KPC] to form acetoacetate and coenzyme M (CoM) in the bacterial pathw
40 boxylation of the beta-ketothioether to form acetoacetate and coenzyme M.
41 nd carboxylation of 2-ketopropyl-CoM to form acetoacetate and CoM according to the reaction: 2-ketopr
42 opyl cleavage product, yielding the products acetoacetate and free coenzyme M.
43 oacetyl-CoA synthetase to synthesize and use acetoacetate and suggests human islets may use this path
44  least two redundant pathways, one involving acetoacetate and the other citrate, for the synthesis SC
45 er a longer fast and with severer ketonemia, acetoacetate and total ketone-body production and oxidat
46                              Rates of plasma acetoacetate and total ketone-body production and oxidat
47 ld ketonemia and minimal ketonuria, rates of acetoacetate and total ketone-body production and oxidat
48 ed of three compounds (beta-hydroxybutyrate, acetoacetate, and acetone) that circulate during starvat
49 l coenzyme A (acetoacetyl-CoA), butyryl CoA, acetoacetate, and beta-hydroxybutyrate.
50  output of 13C-labeled beta-hydroxybutyrate, acetoacetate, and CO2, indicating stimulated fatty acid
51 gen content in hearts perfused with glucose, acetoacetate, and insulin suggests increased glycogen tu
52  for a series of ketones (2-butanone, methyl acetoacetate, and N,N-dimethylacetoacetamide) and alkyl
53 nthesis of 13C-labeled beta-hydroxybutyrate, acetoacetate, and N-acetylglutamate.
54 P-dependent carboxylation of acetone to form acetoacetate as a stoichiometric product.
55 in fumarylacetoacetate to yield fumarate and acetoacetate as the final step of Phe and Tyr degradatio
56 proceeds by a carboxylation reaction forming acetoacetate as the first detectable product.
57 s as carbonyl substrates, and urea and alkyl acetoacetates as further components.
58 networks and signals through the Oct-1-HMGCL-acetoacetate axis to selectively promote BRAF V600E-depe
59 sured using NMR, reveals intact oxidation to acetoacetate but no contribution of ketone bodies to the
60 ding on the medium, and was not derived from acetoacetate by nonenzymatic decarboxylation in the medi
61 enesis (production of beta-hydroxybutyrate + acetoacetate), C(5) ketogenesis (production of beta-hydr
62 t metabolites (3-D-hydroxybutyrate, acetone, acetoacetate, citrate, lactate, creatine, creatinine, an
63  the physiological products of the reaction, acetoacetate, coenzyme M, and NADP, and reduction of the
64 tructure demonstrates reduced coenzyme A and acetoacetate covalently bound to the active site cystein
65                                              Acetoacetate decarboxylase (AADase) has long been cited
66 e include the upregulated adc gene, encoding acetoacetate decarboxylase (EC 4.1.1.4), and the downreg
67 of enzymes in the acetone-formation pathway (acetoacetate decarboxylase [AADC] and coenzyme A-transfe
68                                              Acetoacetate decarboxylase from Clostridium acetobutylic
69  a high degree of structural similarity with acetoacetate decarboxylase, though the respective quater
70 previously uncharacterized family within the acetoacetate decarboxylase-like superfamily (ADCSF) and
71 mologues, identify a novel family within the acetoacetate decarboxylase-like superfamily with diverge
72 significant, level of sequence identity with acetoacetate decarboxylase.
73                                              Acetoacetate decarboxylation and (14)CO(2) exchange occu
74 sing 2-ketopropyl-CoM but did not inactivate acetoacetate decarboxylation or (14)CO(2) exchange react
75 siologically important forward reaction; (3) acetoacetate decarboxylation to form acetone and CO(2);
76      A redox-independent reaction of 2-KPCC (acetoacetate decarboxylation) was not decreased for any
77 on of acetone, CO2, inorganic phosphate, and acetoacetate did not perturb the EPR.
78             Treatment of benzaldehyde and an acetoacetate ester with potassium carbonate in an alcoho
79                The use of low-cost iron(III) acetoacetate (Fe(acac)3) and tetramethylethylenediamine
80 phosphono allylic carbonates with tert-butyl acetoacetate followed by hydrolysis and decarboxylation,
81  for acetone carboxylation of 0.225 micromol acetoacetate formed min-1.mg-1 at 30 degrees C and pH 7.
82 ol AMP and 2 mol inorganic phosphate per mol acetoacetate formed.
83  phosphono allylic carbonate 10a with methyl acetoacetate gave the vinyl phosphonate 9a.
84 exosamine pathway including glucose, GlcNAc, acetoacetate, glutamine, ammonia, or uridine but not by
85 xypropane + CO(2) + NADPH + NAD(+) + CoM --> acetoacetate + H(+) + NADP(+) + NADH + CoM.
86 action epoxypropane + CO2 + NADPH + NAD+ --> acetoacetate + H+ + NADP+ + NADH.
87 ation: epoxypropane + CO2 + NADPH + NAD+ --> acetoacetate + H+ + NADP+ + NADH.
88                                After fumaryl acetoacetate hydrolase (Fah) gene transfer to hepatocyte
89 ient mice (specifically mice lacking fumaryl acetoacetate hydrolase [Fah], recombination activating g
90 ed the carboxylation of epoxypropane to form acetoacetate in a reaction that was dependent on the add
91 eductive cleavage, and carboxylation to form acetoacetate in a three-step metabolic pathway.
92 rsus direct hydration of the allene to yield acetoacetate in the case of Cg10062.
93 release indicating formation of SC-CoAs from acetoacetate in the cytosol is important for insulin sec
94 toacid-CoA transferase, an enzyme that forms acetoacetate in the mitochondria, and acetoacetyl-CoA sy
95                  Nitric oxide adds to methyl acetoacetate in the presence of KOH in methanol at room
96 rsion of propylene to the central metabolite acetoacetate in Xanthobacter autotrophicus Py2.
97 uction in the absence of acetoacetate, while acetoacetate inhibited the uptake of glucose and the oxi
98  beta-hydroxybutyrate formaton indicate that acetoacetate is the primary product of propylene oxide c
99 ruvate) and mitochondrial (3-hydroxybutyrate/acetoacetate) NADH redox states were elevated by at leas
100 action: 2-ketopropyl-CoM + NADPH + CO(2) --> acetoacetate + NADP(+) + CoM.
101 media with serum and without serum; however, acetoacetate only induced proteolysis in cells maintaine
102                              The addition of acetoacetate or insulin increased the incorporation of e
103 e longest linear sequence from either methyl acetoacetate or isobutyraldehyde.
104 tion with the metabolic substrates pyruvate, acetoacetate, or hydroxybutyrate also prevented mitochon
105 earrangement of nonracemic phosphono allylic acetoacetates, or the intermolecular allylic substitutio
106 HMG-CoA reductase reaction and/or cleaved to acetoacetate plus acetyl-CoA by HMG cleavage enzyme.
107 elds a markedly reduced beta-hydroxybutyrate:acetoacetate ratio of 1:3, compared with 3:1 in Oxct1(+)
108 ns of ketone bodies (beta-hydroxybutyrate or acetoacetate) reduced the spontaneous firing rate of neu
109                 We conclude that insulin and acetoacetate regulate the incorporation of glucose into
110 C(3) unit that is ultimately carboxylated to acetoacetate, releasing CoM.
111 t synthesis of 2-ketopropyl-CoM from CoM and acetoacetate, the reverse of the physiologically importa
112  observed in condensations of 16 with benzyl acetoacetate to afford Biginelli adduct 29 supports the
113 , and acetoacetyl-CoA synthetase, which uses acetoacetate to form acyl-CoAs in the cytosol.
114 generated succinyl-CoA initially reacts with acetoacetate to yield acetoacetyl-CoA plus succinate in
115 nary complex with NAD(+) and 3-ketobutyrate (acetoacetate) to 1.4 A resolution, and as a ternary comp
116 uccinate esters or generated by succinyl-CoA-acetoacetate transferase is metabolized to malate follow
117 cetyl-CoA plus succinate in the succinyl-CoA-acetoacetate transferase reaction.
118 oacetate (5 mM), or glucose plus insulin and acetoacetate, using a three tracer (3H, 14C, and 13C) te
119 licum (AAD) catalyzes the decarboxylation of acetoacetate via a Schiff base intermediate.
120                                              Acetoacetate was determined to be the stoichiometric pro
121          A clean arylation protocol of ethyl acetoacetate was developed using hypervalent diaryliodon
122                                  HP [1-(13)C]acetoacetate was increased in fasting (250%) but decreas
123                                              Acetoacetate was significantly increased in the 10 mg/kg
124 reated with high glucose alone or along with acetoacetate, was prevented by vitamin D supplementation
125  the product of reductive decarboxylation of acetoacetate, was revealed in this structure in addition
126 P, Krebs cycle intermediates, glutamate, and acetoacetate were investigated as candidate stimulus-cou
127        Ketone bodies, 3-hydroxybutyrate, and acetoacetate, were nonstatistically elevated, when compa
128 not alter the stereochemistry at C-2 of [2-D]acetoacetate when the reaction is conducted in D2O.
129 s-CaaD and the T34 mutant generate (2R)-[2-D]acetoacetate, whereas Cg10062 generates mostly the 2S is
130 n release caused large relative increases in acetoacetate, which is a precursor of pathways to short
131 eased intracellular levels of HMGCL product, acetoacetate, which selectively enhances binding of BRAF
132 nd promotes the formation of the ketone body acetoacetate, which subsequently enhances BRAF(V600E)/ME
133 ake and lactate production in the absence of acetoacetate, while acetoacetate inhibited the uptake of
134 ensation of 2-hydroxybenzaldehydes and ethyl acetoacetate with 1:1 acetylenecarboxylate-isocyanides i
135 se catalyzes the carboxylation of acetone to acetoacetate with concomitant hydrolysis of ATP to AMP a
136 he ATP-dependent carboxylation of acetone to acetoacetate with the concomitant production of AMP and
137                              Accumulation of acetoacetate yields a markedly reduced beta-hydroxybutyr

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