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1 ated heterocycles with 2-aminopyridine and 2-aminoquinoline.
2 to increase the permeability of parasites to aminoquinolines.
3 onditions to afford biologically important 3-aminoquinolines.
4 s), non-ACT regimens and combinations with 8-aminoquinolines.
5 ative for the formation of the C-N bond in 4-aminoquinolines.
6 bled us to integrate the C-3 side chain on 2-aminoquinoline 1 extending deep into the P2' binding poc
7 d screening of a focused fragment library, 2-aminoquinoline 1 was identified as an initial hit for BA
8 type A light chain (BoNT/A LC) inhibitor bis-aminoquinoline (1) were prepared.
9 -(L)-leucylaminoquinoline (9) to leucine and aminoquinoline (10).
10 ive conversion to the fluorescent product, 6-aminoquinoline (2).
11 5h, prepared from the auxiliaries such as, 8-aminoquinoline, 2-(methylthio)aniline, and N',N'-dimethy
12             An unprecedented reactivity of 3-aminoquinoline-2,4-diones is reported.
13                          Initial 4-anilino-6-aminoquinoline-3-carbonitrile leads showed poor selectiv
14 ution at the C-8 position of our 4-anilino-6-aminoquinoline-3-carbonitrile leads.
15                The 8-substituted-4-anilino-6-aminoquinoline-3-carbonitriles were prepared from the ap
16 of (+/-)-streptonigrin, a potent tetracyclic aminoquinoline-5,8-dione antitumor antibiotic that reach
17 es yielded similar MS/MS results; however, 6-aminoquinoline (6-AQ), 2-amino-9(10 H)-acridone (AMAC) a
18 e was either maintained or replaced with a 4-aminoquinoline-7-carbonitrile were synthesized in an eff
19     Primaquine and tafenoquine are the two 8-aminoquinoline (8-AQ) antimalarial drugs approved for ma
20 just changing the external ligand (L) from 8-aminoquinoline (8-AQ) to tetramethylphenanthroline (TMP)
21 development of hemolytic anemia when given 8-aminoquinolines (8-AQs), an important class of antimalar
22  adding further evidence that antimalarial 4-aminoquinolines act by this mechanism.
23  for the remote C5-H bond carboxylation of 8-aminoquinoline amide and sulfonamide derivatives.
24                                 The use of 8-aminoquinoline amide as an auxiliary efficiently directs
25  a carboxylic acid 2-methylthioaniline- or 8-aminoquinoline amide substrate, aryl or alkyl iodide cou
26 istic understanding of the toxicity of the 4-aminoquinoline amodiaquine (1b), three series of amodiaq
27 nyl chlorides and bidentate ligands (e.g., 8-aminoquinoline and 2-(methylthio)aniline), has been inve
28 structure-activity relationship of seventy 4-aminoquinoline and 9-aminoacridine analogues reveals tha
29 mpounds with a meta-relationship between the aminoquinoline and a positively charged tail moiety were
30                                       For 13 aminoquinoline and aminoacridine compounds, relative dru
31 ized new nNOS inhibitors based on 7-phenyl-2-aminoquinoline and assayed them against rat and human nN
32 -induced electron transfer (PET) between the aminoquinoline and naphthalimide moieties by glucosamine
33      In this investigation, new hybrids of 4-aminoquinoline and pyrimidine moieties that show antipla
34 sign were employed to identify substituted 4-aminoquinolines and 4-aminonaphthyridines as potent, sma
35                                Resistance to aminoquinolines and antifolates is long-standing, yet wi
36 his study, 5-substituted phenyl ether-linked aminoquinolines and derivatives were synthesized and ass
37 ibility were those previously identified for aminoquinolines and pyrimethamine.
38 c methods for the synthesis of quinolines, 2-aminoquinolines, and quinazolines via biomimetic dehydro
39        Various polysubstituted quinolines, 2-aminoquinolines, and quinazolines were synthesized in mo
40   We have previously described a system of 2-aminoquinoline- and 2-aminoquinazoline-based C-deoxynucl
41               A method for cobalt-catalyzed, aminoquinoline- and picolinamide-directed C(sp(2))-H bon
42  a population-level surrogate endpoint for 8-aminoquinoline antihypnozoite activity to prevent P. viv
43 macology has also been established for the 4-aminoquinoline antimalarial class.
44               Here we demonstrate that the 8-aminoquinoline antimalarial drug tafenoquine inhibits th
45                           Amodiaquine is a 4-aminoquinoline antimalarial similar to chloroquine that
46                  Amodiaquine (AQ) (2) is a 4-aminoquinoline antimalarial that can cause adverse side
47                           Primaquine is an 8-aminoquinoline antimalarial.
48         Amodiaquine (AQ) and tebuquine are 4-aminoquinoline antimalarials with Mannich base side chai
49 linary approach for the development of new 4-aminoquinoline antimalarials, with efficacy superior to
50                                              Aminoquinolines (AQs) with diaminoalkane side chains (-H
51 acile but thermodynamically unfavorable with aminoquinoline as a directing group and acetonitrile as
52 n Ni-catalyzed C(sp(3))-H activation using 8-aminoquinoline as a directing group motivated us to exam
53                  Previously, we identified 2-aminoquinoline as a fragment hit toward p47phox(SH3A-B)
54 fluoroalkylated gamma-lactams derived from 4-aminoquinoline as potent chemotherapeutic agents for mal
55  MAGE-A11:substrate interaction identified 4-Aminoquinolines as potent inhibitors of MAGE-A11 that sh
56 atic amides is achieved in the presence of 8-aminoquinoline, as a removable directing group, using Mn
57 antimalarials, including endoperoxides and 4-aminoquinolines, as well as compounds active against ase
58 ple and general method for copper-catalyzed, aminoquinoline-assisted amination of beta-C(sp(2))-H bon
59 r alkylation of sp(3) and sp(2) C-H bonds, 8-aminoquinoline auxiliary affords the best results.
60 rs were synthesized with aminonaphthalene or aminoquinoline auxiliary groups tethered to N-4 of cytos
61 for amine gamma-functionalization, and the 8-aminoquinoline auxiliary is used for carboxylic acid bet
62 n of secondary sp(3) C-H bonds is desired, 8-aminoquinoline auxiliary may be used.
63                                      Using 8-aminoquinoline-based aryl carboxamides, the direct ortho
64  and, among the non-nucleoside inhibitors, 4-aminoquinoline-based inhibitors, such as SGI-1027 and it
65 We previously developed several classes of 2-aminoquinoline-based nNOS inhibitors, but these compound
66                                            2-Aminoquinoline-based scaffolds were designed with the ho
67 arbon monoxide, cyclic secondary amines, and aminoquinoline benzamides have been explored.
68 tic carboxylic acids that are protected as 8-aminoquinoline benzamides is described.
69                 Removable picolinamide and 8-aminoquinoline bidentate directing groups are used to co
70 ers previously associated with resistance to aminoquinolines, but increased sensitivity to lumefantri
71             Tethering a fluorine atom to the aminoquinoline C(3) position afforded fluoroaminoquinoli
72  Unlike diprotic chloroquine (CQ), its two 4-aminoquinoline carbon isosteres (1, 2) are monoprotic at
73                                        The 8-aminoquinolines cause dose-dependent haemolysis in gluco
74  relationships (SAR) across the top-ranked 4-aminoquinoline chemotype.
75 omising members of our previously reported 2-aminoquinoline class of nNOS inhibitors, although orally
76                                            4-aminoquinolines, classically prepared via SNAr chemistry
77                             Crystallized AIF-aminoquinoline complexes validate TR-SAXS-guided SAR, su
78 , the hPDE-V inhibitors sildenafil and the 4-aminoquinoline compound 7a do not affect Cryptosporidium
79      Together with a tris(formylpyridine), 8-aminoquinoline condensed around Zn(II) templates to prod
80 Several compounds built on a 7-substituted 2-aminoquinoline core are potent and isoform-selective; X-
81 d by acid-mediated cyclization to afford the aminoquinoline core.
82 plasmodial activities of various substituted aminoquinolines coupled to an adamantane carrier are des
83    We synthesized both truncated and polar 2-aminoquinoline derivatives and assayed them against reco
84 loroquine yielded a series of new 7-chloro-4-aminoquinoline derivatives exhibiting high in vitro acti
85                                              Aminoquinoline derivatives were evaluated against a pane
86 earranged phenyl ether- and aniline-linked 2-aminoquinoline derivatives were therefore designed to (a
87 t catalysts for the C-H functionalization of aminoquinoline derivatives with I(2).
88 th various 2-aminoazoles, aminopyridine, and aminoquinoline derivatives, to provide diverse monoalkyl
89 rthermore, the developed route includes an 8-aminoquinoline-directed C(sp(2))-H arylation as one of i
90 ere mechanistic studies of cobalt-catalyzed, aminoquinoline-directed C(sp(2))-H bond functionalizatio
91 ation of Cu(II) and Cu(III) intermediates in aminoquinoline-directed C(sp(2))-H functionalization of
92  analogous to a key intermediate proposed in aminoquinoline-directed C-H functionalization catalysis.
93 llic aryl-Co(III) intermediate proposed in 8-aminoquinoline-directed Co-catalyzed C-H activation proc
94        We report herein a cobalt-catalyzed 8-aminoquinoline-directed highly regio- and stereoselectiv
95 ribes detailed organometallic studies of the aminoquinoline-directed Ni-catalyzed C-H functionalizati
96                                         An 8-aminoquinoline-directed, copper/1,10-phenanthroline-medi
97                           Furthermore, the 8-aminoquinoline directing group is easily removed to affo
98 lent regiocontrol is achieved utilizing an 8-aminoquinoline directing group that can be readily cleav
99 ligands, thus rivaling the efficiency of the aminoquinoline directing group.
100 N-tert-Butyl isoquine (4) (GSK369796) is a 4-aminoquinoline drug candidate selected and developed as
101 differences among ACTs and single low-dose 8-aminoquinoline drugs in their ability and speed to block
102                              Resistance to 4-aminoquinoline drugs is associated with reduced drug per
103 ariant forms can transport these weak-base 4-aminoquinoline drugs out of this acidic organelle, thus
104 tant P falciparum during pregnancy, and of 8-aminoquinolines during lactation, needs to be establishe
105 ective; X-ray crystallography indicates that aminoquinolines exert inhibitory effects by mimicking su
106 fluorescein modified with a functionalized 8-aminoquinoline group as a copper-binding moiety, were sy
107                     Efficient synthesis of 3-aminoquinolines has been demonstrated from readily acces
108    Their haemolytic risk when treated with 8-aminoquinolines has not been well characterized.
109 malarial drugs, chloroquine (CQ) and other 4-aminoquinolines have shown high potency and good bioavai
110 wo fluorescein-based dyes derivatized with 8-aminoquinoline, have been prepared and their photophysic
111 ation in one pot offered access to various 3-aminoquinolines in a good yield.
112 ence suggests that there is dose-dependent 8-aminoquinoline induced methaemoglobinaemia and that high
113 ly developed a class of membrane-permeable 2-aminoquinoline inhibitors and later rearranged the scaff
114 opment in the vector; and NPC-1161B, a new 8-aminoquinoline, inhibits sporogony.
115                              Conversion of 3-aminoquinolines into biological important motifs has als
116 mides assisted by a reusable bis-chelating 8-aminoquinoline ligand is demonstrated.
117 obic substituent next to the cyano group and aminoquinoline methylation considerably improved isoform
118      Introduction of a methyl group onto the aminoquinoline modulated the coordination sphere of Zn(I
119 gy exploits the chelation of Cu(II) to two 8-aminoquinoline moieties, one in each strand.
120 n indol-3-yl linked to the 2-position of a 4-aminoquinoline moiety, shows promising activity against
121 hesis and characterization of cyclometalated aminoquinoline Ni(II) sigma-aryl and sigma-alkyl complex
122 and 78 are the first examples of either an 4-aminoquinoline or a tetraoxane liver stage inhibitors.
123 positioning as well as substituents on the 2-aminoquinoline part and characterized the bivalent bindi
124  novel antimalarial drug that combines the 4-aminoquinoline pharmacophore of chloroquine with that of
125  inexpensive NiBr(2) and readily available 8-aminoquinoline picolinic amide ligand.
126 liary ligand N,N-bidentate-directing group 8-aminoquinoline plays a crucial role in the success of th
127                                            8-aminoquinolines (primaquine and tafenoquine) are used fo
128 ical cure of Plasmodium vivax malaria with 8-aminoquinolines (primaquine or tafenoquine) is complicat
129                                        The 8-aminoquinolines, primaquine and tafenoquine, are the onl
130      This study reports the development of 8-aminoquinoline (QN) derivatives and their transmembrane
131 noxy)-methyl]-6-methoxy-8-bis [carboxymethyl]aminoquinoline (Quin-2).
132 ax malaria at risk of haemolysis following 8-aminoquinoline radical cure is substantially overestimat
133                              Particularly, 8-aminoquinoline reacted differently with tandem N-alkylat
134                        Amodiaquine (AQ), a 4-aminoquinoline related to CQ, is recommended and often u
135                                        For 4-aminoquinolines related to CQ, our data suggest that ele
136                    Prevalences of markers of aminoquinoline resistance (PfCRT K76T, PfMDR1 N86Y) were
137                             A new model of 4-aminoquinoline resistance is proposed to take account of
138                                  Considering aminoquinoline resistance, DP was associated with increa
139  in Tanzania; and (iii) the persistence of 4-aminoquinoline-resistant parasites in South America, whe
140 he addition of an additional subcomponent, 8-aminoquinoline, resulted in the formation of a third, mo
141                           Nonquaternerized 4-aminoquinolines retain significant potency but are relat
142 compared with CQ include the presence of two aminoquinoline rings and a triamine linker and C-7 chlor
143                                            2-Aminoquinolines showed promise as bioavailable nNOS inhi
144                                          AIF-aminoquinoline structures and mutational analysis reveal
145            This work introduces the use of 8-aminoquinoline subcomponents to generate complex three-d
146 re Pfcrt K76 (haplotype CVMNK, a marker of 4-aminoquinoline susceptibility) and most were quintuple P
147 erized, including, for the first time in the aminoquinoline system, complexes arising from migratory
148                            The long-acting 8-aminoquinoline tafenoquine may be a good candidate for m
149 uestion mark-6-methoxy-8-bis-(carboxymethyl)-aminoquinoline tetra-(acetoxymethyl)ester (Quin/AM), a c
150               Tafenoquine is a single-dose 8-aminoquinoline that has recently been registered for the
151 on chloroquine (CQ), a safe and affordable 4-aminoquinoline that was highly effective against intra-e
152 ed by mutagenesis studies, making 7-phenyl-2-aminoquinolines the first aminoquinolines to interact wi
153 P ovale require additional therapy with an 8-aminoquinoline to eradicate the liver stage.
154 uch as aminopyridine, 2-aminopyrimidine, and aminoquinoline to provide diverse monoalkylated organoni
155  making 7-phenyl-2-aminoquinolines the first aminoquinolines to interact with this residue.
156 dazo[1,2-a]pyridines, and by starting from 2-aminoquinoline, we could generate pentacenes, viz., indo
157 nds of secondary amides included 5-methoxy-8-aminoquinoline, which can be removed under mild conditio
158 sis, 1,8-dihydroxyanthrone (dithranol) and 3-aminoquinoline with potassium trifluoroacetate used as t
159 sm paves the way to rationally re-designed 8-aminoquinolines with improved pharmacological profiles.
160                                    Because 4-aminoquinolines with modified side chains, such as AQ-13

 
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