ライフサイエンスコーパス: catalytic reduction

1 3-hydroxypropenoic acid ester, followed by a catalytic reduction.

2 lectivity by facilitating internal selective catalytic reduction.

3 Catalytic reduction (5% Rh/alumina) of 2'-deoxyuridine,

4 om a Diesel Particulate Filter and Selective Catalytic Reduction after-treatment system (DPF-SCR) equ

5 eginning of each route due to cold selective catalytic reduction aftertreatment temperature.

6 For the diesel OSVs, which had selective catalytic reduction and diesel particulate filters, fuel

7 chwald-Hartwig amination, followed by tandem catalytic reduction and oxidative cyclization.

8 nt advances, the interplay between the CO(2) catalytic reduction and the oxidative redox processes th

9 lyst systems is reviewed and the advances in catalytic reductions and the development of stereoselect

10 thyl-pent-3-enoate side chain was removed by catalytic reduction, and the remaining ester group was c

11 ctions not only to provide a hydride ion for catalytic reduction, but is also a critical structural c

12 This suggests catalytic reduction can be competitive with increased ac

13 Pd(0)-based catalytic reduction chemistry and continuous-flow treatm

14 The catalytic reduction current is related to HRP amount imm

15 In the range of 0.5-400.0 microM, the catalytic reduction current of H2O2 was proportional to

16 suggests that properly calibrated selective catalytic reduction filter and lean-NOx trap after-treat

17 dine with ethyl 4-acetylbenzoate followed by catalytic reduction, hydrolysis, and standard peptide co

18 an any other just how sensitive a successful catalytic reduction is to small changes in the triamidoa

19 The NH(3)-mediated selective catalytic reduction (NH(3)-SCR) of NOx over Cu-ion-excha

20 g low-temperature standard ammonia-selective catalytic reduction (NH(3)-SCR), via a combination of SC

21 This unusual catalytic reduction occurs at a potential at which the s

22 We describe an effective method for catalytic reduction of 1 degrees alkyl sulfonates, and 1

23 any sites, we tested a synergistic platform: catalytic reduction of 1,1,1-TCA and TCE to ethane in a

24 eniently prepared in up to 86% yield via the catalytic reduction of 1-iodo- or 1-bromo-5-decyne by [[

25 tral observations include the following: (1) catalytic reduction of 1.[O] to P(III) phosphetane 1 is

26 nocomposites has also been demonstrated with catalytic reduction of 4-nitrophenol.

27 Catalytic reduction of a representative set of imines, b

28 herichia coli (ecNrfA) previously, revealing catalytic reduction of both nitrite and hydroxylamine su

29 A new transition-metal-free mode for the catalytic reduction of carbon dioxide via bidentate inte

30 ic formylation of amides using CO(2) and the catalytic reduction of carbon dioxide, including atmosph

31 , in the growth of graphene films and in the catalytic reduction of carbon dioxide.

32 The catalytic reduction of carboxylic acid derivatives has w

33 Catalytic reduction of carboxylic acid to the correspond

34 protein scaffold and used to facilitate the catalytic reduction of CN(-) , CO, and CO2 into hydrocar

35 Here, we describe the catalytic reduction of CN(-) to NH(3) and CH(4) by a hig

36 Dialumene (1) can also be used in the catalytic reduction of CO(2) , providing selective forma

37 experimentally with examples taken from the catalytic reduction of CO(2) by iron(0) porphyrins.

38 The catalytic reduction of CO(2) to HCO(2)(-) requires a for

39 -halide bond, alkene hydrosilylation, and in catalytic reduction of CO(2) to methoxyborane, all under

40 The catalytic reduction of CO2 is of great current interest

41 Catalytic reduction of CO2 with Et3SiH was also accompli

42 During the catalytic reduction of diethyl ether, cationic iridium s

43 trahydro-pyridin-2(1H)-one 10 is obtained by catalytic reduction of dihydropyridin-2(1H)-one 7.

44 -) ([DPPN(3)N](3-)) that are relevant to the catalytic reduction of dinitrogen have been prepared.

45 Since our discovery of the catalytic reduction of dinitrogen to ammonia at a single

46 then evaluated for their efficiency for the catalytic reduction of dinitrogen under conditions where

47 nd discuss the bottlenecks and challenges in catalytic reduction of dinitrogen.

48 ework of the commonly accepted mechanism for catalytic reduction of dioxygen by iron porphyrins, afte

49 rogen peroxide is mainly produced during the catalytic reduction of dioxygen with 80-84% selectivity,

50 V) oxidation state is needed to initiate the catalytic reduction of either dimethyl sulfoxide or trim

51 Instead, catalytic reduction of esters requires activation of the

52 a supplier of the hot electron for enhanced catalytic reduction of H(2)O(2) where the free electron

53 mimicking-DNAzyme significantly improved the catalytic reduction of H2O2 by oxidation of methylene bl

54 The catalytic reduction of hydrazine (N(2)H(4)) to ammonia b

55 r can support the light-driven, six-electron catalytic reduction of hydrogen cyanide into methane and

56 a higher sensitivity for the electrochemical catalytic reduction of hydrogen peroxide.

57 u) serves as a catalyst or precursor for the catalytic reduction of molecular nitrogen to ammonia in

58 assembly of liposomal microreactors enabling catalytic reduction of N(2) O to the climate neutral pro

59 ssive H(2) equivalents for the 6 e(-)/6 H(+) catalytic reduction of N(2) to NH(3); this catalysis is

60 lytic decomposition (deN(2)O), and selective catalytic reduction of N(2)O.

61 e the catalytic performance in the selective catalytic reduction of nitrogen oxides (NO(x)) with H(2)

62 nd were applied in ammonia-induced selective catalytic reduction of nitrogen oxides (SCR process).

63 ive methane oxidation to methanol, selective catalytic reduction of nitrogen oxides, propane dehydrog

64 The assay utilizes the catalytic reduction of nitrosothiol by mercuric cation (

65 The catalytic reduction of nitrous oxide (N(2)O) has been ac

66 A process for the catalytic reduction of nitrous oxide using NHC-ligated c

67 tion of FLPs on CeO(2)(110) to the selective catalytic reduction of NO by NH(3) (NH(3)-SCR), finding

68 lucidate here the mechanism of the selective catalytic reduction of NO by NH3 (NH3-SCR) over a Fe-ZSM

69 e via an H(2)-plasma treatment for selective catalytic reduction of NO with NH(3).

70 ed in situ IR was performed during selective catalytic reduction of NO with NH3 on supported V2O5-WO3

71 as recently commercialized for the selective catalytic reduction of NO X with ammonia in vehicle emis

72 lly dispersed copper sites in UiO-66 for the catalytic reduction of NO(2) at ambient temperature.

73 oscopic reaction properties of the selective catalytic reduction of NO(x) over active Cu species.

74 its superior activity in the NH(3) selective catalytic reduction of NO(x) used as a benchmark reactio

75 s a very efficient material in the selective catalytic reduction of NO(x) using ammonia (deNO(x)-SCR)

76 undance, probably a consequence of selective catalytic reduction of NO(x), and the reduction efficien

77 AEI zeolites during NH(3)-assisted selective catalytic reduction of NO(x).

78 c reducers was observed, suggesting that the catalytic reduction of NOx increases delta(15)N-NOx valu

79 pe fractionation effects associated with the catalytic reduction of NOx.

80 Catalytic reduction of O(2) and H(2)O(2) by new syntheti

81 It was finally concluded that the catalytic reduction of O(2) by MP-11 adsorbed within nan

82 The catalytic reduction of O(2) to H(2)O is important for en

83 of NADH (0.05 V vs. Ag/AgCl) as well as the catalytic reduction of O2 and H2O2 at reduced overpotent

84 rradiation with 350 nm light, turning on the catalytic reduction of organic carbonyls by hydrosilanes

85 cal reactions was also demonstrated with the catalytic reduction of oxygen by MP-11.

86 le production of hydrogen peroxide through a catalytic reduction of oxygen facilitated by the complex

87 The electro-catalytic reduction of oxygen is reversibly inhibited by

88 ly to contain significant contributions from catalytic reduction of oxygen produced during the cataly

89 lic voltammetry (CV) and is confirmed by the catalytic reduction of oxygen.

90 e published research in the area of Pd-based catalytic reduction of priority drinking water contamina

91 for iridium reduction and the corresponding catalytic reduction of protons implies that 6 +/- 2 ions

92 plexes that are exceptionally active for the catalytic reduction of protons in aqueous solvent mixtur

93 in molecular electrochemical approaches for catalytic reduction of protons to hydrogen, focusing on

94 Catalytic reduction of secondary amides to imines and se

95 The catalytic reduction of SeO(4)(2-) and SeO(3)(2-) directl

96 ey structural states of ligated SiRHP in the catalytic reduction of sulfite to sulfide.

97 Some analogs were prepared by catalytic reduction of the alkene and alkene analogs 3 a

98 azide, complete cleavage of the esters, and catalytic reduction of the azide yielded the requisite a

99 Catalytic reduction of the nitro group followed by react

100 yl 2-bromomethyl-4-nitrobenzoate followed by catalytic reduction of the nitro group, reductive coupli

101 by His, the resulting MoFe protein supports catalytic reduction of the nitrogenous substrate hydrazi

102 Catalytic reduction of the pyridine to the piperidine fo

103 The pH-dependent catalytic reduction of trichloracetic acid was faster in

104 gly acidic solutions for the electrochemical catalytic reduction of trichloracetic acid, hydrogen per

105 With the catalytic reduction of V(4+) electrolyte, a high quality

106 Catalytic reduction of water contaminants using palladiu

107 Furthermore, catalytic reductions of aqueous 1,1,1-TCA alone or conco

108 Four attempted catalytic reductions of dinitrogen with [DPPN(3)N]MoN yi

109 Novel catalytic reductions of tertiary and secondary phosphine

110 subsequent efficient reduction in selective catalytic reduction or lean NO(x) trap devices continues

111 rogenation, semihydrogenation, and selective catalytic reduction), oxidative reactions (oxygenation o

112 lytic reduction path on the Au surface and a catalytic reduction path on the Sn surface are introduce

113 other and carry out approximately 90% of the catalytic reduction process of O(2)-H(2)O(2).

114 The catalytic reduction producing dihydrogen occurs at appro

115 We found that the catalytic reduction (PtO2, H2) procedure provided the ci

116 ctive reducing agent through their selective catalytic reduction reaction (N(2)O-NO-SCR).

117 Catalytic reduction reactions using methanol as a transf

118 Hydride transfer (HT) is ubiquitous in catalytic reduction reactions.

119 previously been retrofitted with a selective catalytic reduction (SCR) aftertreatment system to reduc

120 The introduction of selective catalytic reduction (SCR) aftertreatment to meet stringe

121 s with and without the presence of selective catalytic reduction (SCR) and selective noncatalytic red

122 Active centers in Cu/SSZ-13 selective catalytic reduction (SCR) catalysts have been recently i

123 Commercial Cu/SAPO-34 selective catalytic reduction (SCR) catalysts have experienced une

124 ), Cu zeolite-, and vanadium-based selective catalytic reduction (SCR) catalysts, and ammonia oxidati

125 -based deNO(x) catalyst supporting selective catalytic reduction (SCR) chemistry.

126 and three equipped with EGR and a selective catalytic reduction (SCR) device were measured on two di

127 lower NOx emissions as compared to selective catalytic reduction (SCR) equipped diesel vehicles.

128 diesel particle filters (DPFs) and selective catalytic reduction (SCR) increased rapidly.

129 eet stringent NOx emission limits, selective catalytic reduction (SCR) is increasingly utilized in sh

130 ng performance in the NH3-assisted selective catalytic reduction (SCR) of harmful nitrogen oxides and

131 d into zeolites are active for the selective catalytic reduction (SCR) of nitrogen oxides (NO x ) wit

132 nvestigate the reaction network of selective catalytic reduction (SCR) of NO over copper-exchanged ch

133 e of copper redox chemistry in the selective catalytic reduction (SCR) of NO over Cu-exchanged SSZ-13

134 are highly active for the standard selective catalytic reduction (SCR) of NO with NH(3).

135 s, owing to its application in the selective catalytic reduction (SCR) of NO(x) species.

136 catalytic processes including the selective catalytic reduction (SCR) of NO(x) species.

137 The selective catalytic reduction (SCR) of NO(x) with NH(3) to N(2) wi

138 hylene oxidation (Wacker process), selective catalytic reduction (SCR) of NO, NO adsorption, and meth

139 f lean-NOx reduction technologies, selective catalytic reduction (SCR) of NOx by NH3 over Cu- and Fe-

140 active sites, and activity for the selective catalytic reduction (SCR) of NOx with NH3 are establishe

141 materials have been tested for the selective catalytic reduction (SCR) of NOx, presenting an outstand

142 dration of bioalcohol, and ammonia selective catalytic reduction (SCR) of NOx.

143 diesel particle filters (DPF) and selective catalytic reduction (SCR) on heavy-duty diesel truck emi

144 esel particulate filters (DPF) and selective catalytic reduction (SCR) or a combined SCR+DPF (SCRT) d

145 carbonates, imine metathesis, and selective catalytic reduction (SCR) reactions.

146 Selective catalytic reduction (SCR) reduced NO(x) emissions by ~80

147 ur marine residual fuel and have a Selective Catalytic Reduction (SCR) system for NO(X) abatement.

148 l vehicles (HDDVs) equipped with a Selective Catalytic Reduction (SCR) system in California.

149 diesel engine equipped with a urea selective catalytic reduction (SCR) system.

150 coal, and as a by-product of urea-selective catalytic reduction (SCR) systems that are being phased-

151 esel particulate filter (DPF), and selective catalytic reduction (SCR) were tested on a chassis dynam

152 trucks, two diesels equipped with selective catalytic reduction (SCR), two LNG's equipped with three

153 ucing the impact on the downstream selective catalytic reduction system and blocking the spread of ar

154 esel vehicles including those with selective catalytic reduction systems that use NH(3) to reduce emi

155 For vehicles with OEM DPFs and Selective Catalytic Reduction Systems, PNEFs under highway driving

156 w heavy-duty engines equipped with selective catalytic reduction systems, resulting in a 48% decrease

157 s, diesel particulate filters, and selective catalytic reduction systems.

158 are the result of new trucks using selective catalytic reduction systems.

159 tainability of IX, biological treatment, and catalytic reduction technologies are compared more gener

160 exhaust temperature was ideal for selective catalytic reduction to reduce NOx.

161 ntains high performance in ammonia-selective catalytic reduction under phosphorus-rich conditions.

162 armful nitrogen oxides (NO(x)) via selective catalytic reduction with ammonia (NH(3)-SCR) due to thei

163 xhaust gas recirculation (EGR), or selective catalytic reduction with trap (SCRT).