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1 er acidic conditions during the synthesis of indole alkaloids.
2 bers of a fascinating class of monoterpenoid indole alkaloids.
3 other members of the Aspidosperma family of indole alkaloids.
4 reaction with tryptamine toward monoterpene indole alkaloids.
5 gue relevant to secoiridoids and monoterpene indole alkaloids.
6 ernary stereocenters of multiple monoterpene indole alkaloids.
7 esis of secondary metabolites, including the indole alkaloids.
8 aoctane core shared among several prenylated indole alkaloids.
9 indolenines, a common motif in many natural indole alkaloids.
10 ecule library, reminiscent of the polycyclic indole alkaloids.
11 s that produces high amount of monoterpenoid indole alkaloids.
12 rstand the biosynthesis of fungal prenylated indole alkaloids.
13 ts, including approximately 3000 monoterpene indole alkaloids.
14 ure eliminates all production of monoterpene indole alkaloids, a class of natural products derived fr
19 iwinkle, synthesizes bioactive monoterpenoid indole alkaloids, among which the anti-cancer drugs vinb
21 l synthesis of notoamide J, a new prenylated indole alkaloid and potential biosynthetic precursor, is
22 nstitutes the first total synthesis of these indole alkaloids and provides the first regiospecific ro
24 the synthesis of macroline/sarpagine related indole alkaloids and their antipodes for biological scre
26 ydroxygeraniol, the precursor of monoterpene indole alkaloids, and cannabigerolic acid, the cannabino
28 f natural products, such as the prostanoids, indole alkaloids, and macrolide antibiotics, provide amp
38 o verify the role of this reverse-prenylated indole alkaloid as an intermediate along the biosyntheti
40 the formal total synthesis of monoterpenoid indole alkaloids (+/-)-aspidofractinine, (+/-)-limasperm
41 nthesis of the perhydroquinoline core of the indole alkaloid aspidophytine (2), starting from commerc
42 ard the concise total syntheses of classical indole alkaloids (-)-aspidospermidine, (-)-tabersonine,
44 classes of plant natural products, including indole alkaloids, benzylisoquinoline alkaloids, hydroxyc
45 c enzymatic chlorination timing in ambiguine indole alkaloid biogenesis led to the discovery and char
46 and is considered a key step in monoterpene indole alkaloid biosynthesis as it links primary and sec
47 requirement of class II CPRs for monoterpene indole alkaloid biosynthesis with a minimal or null role
48 identification of bottlenecks in monoterpene indole alkaloid biosynthesis, and discovery of new pathw
49 ly hydrolyzes 3 alpha(S)-epimer in terpenoid-indole alkaloid biosynthesis, IpeGlu1 lacked stereospeci
54 We describe herein formal syntheses of the indole alkaloids cis-trikentrin A and herbindole B from
55 62066 (1 microM) and ibogaine (1 microM), an indole alkaloid claimed to be useful in the treatment of
57 ral products belong to a group of prenylated indole alkaloids containing a core bicyclo[2.2.2]diazaoc
61 ymmetric approach to both enantiomers of the indole alkaloid deplancheine from a readily available, n
62 se-like prenyltransferase as the catalyst of indole alkaloid diketopiperazine prenylation, and a rare
63 ynthesis of the biologically significant bis-indole alkaloid dragmacidin D (5) has been achieved.
64 the total synthesis of the sarpagine-related indole alkaloids (-)-(E)16-epiaffinisine (1), (+)-(E)16-
65 involved in the biosynthesis of monoterpene indole alkaloids either through multiple isomers of stri
68 of the small class of unusual monoterpenoid indole alkaloids exemplified by alstilobanines A (3) and
69 hesis of congeners in the reverse-prenylated indole alkaloid family related to stephacidin A by takin
73 Akuammine (1) and pseudoakuammigine (2) are indole alkaloids found in the seeds of the akuamma tree
74 dy we have identified new halogenated prenyl-indole alkaloids from an invertebrate-derived Malbranche
77 etic precursor of a variety of monoterpenoid indole alkaloids, from d-tryptophan (19) was performed a
81 rborisidine, a caged pentacyclic monoterpene indole alkaloid, has been accomplished in both racemic a
85 leton of the apparicine class of monoterpene indole alkaloids in only four steps in 80% overall yield
86 iwinkle, synthesizes bioactive monoterpenoid indole alkaloids, including the anti-cancer drugs vinbla
87 is the source of several medicinal terpenoid indole alkaloids, including the low-level anticancer vin
88 reas phorbol 12-myristate 13-acetate and the indole alkaloids indolactam and octylindolactam were sel
89 n of these prenylated and reverse-prenylated indole alkaloids is bioinspired, and may also inform the
90 Malbrancheamide is a dichlorinated fungal indole alkaloid isolated from both Malbranchea aurantiac
94 yntheses of the Strychnos-Strychnos-type bis-indole alkaloids (-)-leucoridine A (1) and C (2) were ac
95 can be expanded to some biologically active indole alkaloids like pityriacitrins, eudistomins Y(1) a
97 han, which is then shuttled into monoterpene indole alkaloid metabolism to yield chlorinated alkaloid
98 cs approach, we interrogated the monoterpene indole alkaloid (MIA) biosynthetic pathway in Catharanth
99 s of biologically active monoterpene-derived indole alkaloid (MIA) metabolites and is the sole source
100 l types, as exemplified by the monoterpenoid indole alkaloid (MIA) pathway of Catharanthus roseus (Ma
101 ristine are condensed from the monoterpenoid indole alkaloid (MIA) precursors catharanthine and vindo
103 kle), the unique source of the monoterpenoid indole alkaloid (MIA)-type anticancer drugs vincristine
109 The pharmaceutically valuable monoterpene indole alkaloids (MIAs) in Catharanthus roseus are deriv
112 mily produce a large number of monoterpenoid indole alkaloids (MIAs) with different substitution patt
113 of structural expansion in the monoterpenoid indole alkaloids (MIAs) yielding thousands of unique mol
116 rsion of C3 stereochemistry in monoterpenoid indole alkaloids (MIAs), derived from the central precur
117 The total synthesis of two monoterpenoid indole alkaloids (MIAs), erchinines A and B, is describe
118 biosynthesis of many different monoterpenoid indole alkaloids (MIAs), many of which have powerful bio
121 esis of the 9-methoxy-substituted Corynanthe indole alkaloids mitragynine (1), 9-methoxygeissoschizol
123 synthesis of the ring-A oxygenated sarpagine indole alkaloids (+)-N(a)-methylsarpagine (8), (+)-majvi
124 tures of the sponge-derived dibrominated bis-indole alkaloids, namely, echinosulfone A (2) and the ec
125 aloids are a diverse class of fungal-derived indole alkaloid natural products with potent pharmacolog
127 olled strategy to the Aspidosperma family of indole alkaloids, one that is readily adapted to the asy
128 idea that Trp biosynthesis and the secondary indole alkaloid pathway are coordinately regulated.
129 es cerevisiae host from 14 known monoterpene indole alkaloid pathway genes, along with an additional
131 s of the architecturally complex tremorgenic indole alkaloid (-)-penitrem D (4) has been achieved.
133 l synthesis of arborisidine, a unique Kopsia indole alkaloid possessing a fully substituted cyclohexa
134 There are approximately 3,000 monoterpene indole alkaloids produced by thousands of plant species
135 provides Trp for both protein synthesis and indole alkaloid production and therefore represents a ju
136 hesis of the unusual cyclopropane-containing indole alkaloid (-)-rauvomine B via a strategy centered
140 nalyte electrochemistry was tested using the indole alkaloid reserpine, which is often used to test t
141 zophenanthridine alkaloids and monoterpenoid indole alkaloids, respectively, in response to microbial
143 nstrated in the first total synthesis of the indole alkaloid ( )-sorazolon B, which enabled the stere
144 , the first total synthesis of the monomeric indole alkaloids (+)-spegatrine (2), (+)-10-methoxyvello
145 apply this strategy to the synthesis of the indole alkaloid spegazzinidine, it was necessary to addr
146 e early steps for creation of the prenylated indole alkaloid structure and suggest a scheme for the b
147 the 19th century to the present, the complex indole alkaloid strychnine has engaged the chemical comm
148 l synthesis of the bridge-fused Aspidosperma indole alkaloid (+/-)-subincanadine F has been accomplis
149 tral role in the biosynthesis of monoterpene indole alkaloids such as strychnine, ibogaine, and vinbl
153 corynantheol and the formal syntheses of the indole alkaloids tacamonine, rhynchophylline, and hirsut
157 tural products--specifically the monoterpene indole alkaloids, the benzylisoquinoline alkaloids and t
159 expression of all the genes in the Terpenoid Indole Alkaloids (TIAs) pathway that produces the vinbla
160 s roseus produces a large array of terpenoid indole alkaloids (TIAs) that are an important source of
161 e to the interest in their dimeric terpenoid indole alkaloids (TIAs) vinblastine and vincristine, whi
162 aranthus roseus produces bioactive terpenoid indole alkaloids (TIAs), including the chemotherapeutics
166 In our quest to discover new monoterpene indole alkaloids, we demonstrate the utility of the MetW
167 e of CPRs in the biosynthesis of monoterpene indole alkaloids, we provide compelling evidence of an o
168 uld permit entry into many ring-A oxygenated indole alkaloids when coupled with the asymmetric Pictet
171 ed Zincke aldehyde cycloaddition approach to indole alkaloids, which permitted the gram-scale synthes
173 Actinophyllic acid is a biologically active indole alkaloid with a unique structural framework that
174 ne and communesin F are structurally related indole alkaloids with an intriguing polycyclic core cont
175 a general entry into C-6 hydroxy-substituted indole alkaloids with either an alpha or a beta configur