SummaryThe core structure of the iridoid monoterpenes is formed by a unique cyclization reaction. The enzyme that catalyzes this reaction, iridoid synthase, is mechanistically distinct from other terpene cyclases. Here we describe the synthesis of two substrate analogs to probe the mechanism of iridoid synthase. Enzymatic assay of these substrate analogs along with clues from the product profile of the native substrate strongly suggest that iridoid synthase utilizes a Michael reaction to achieve cyclization. This improved mechanistic understanding will facilitate the exploitation of the potential of iridoid synthase to synthesize new cyclic compounds from nonnatural substrates
Class II diterpene cyclases catalyze bicyclization of geranylgeranyl diphosphate. While this reactio...
Terpene synthases often catalyze complex cyclization reactions that typically represent the committe...
Iridoids represent a large group of monoterpenoid compounds that apparently seem to be formed in pla...
The core structure of the iridoid monoterpenes is formed by a unique cyclization reaction. The enzym...
SummaryThe core structure of the iridoid monoterpenes is formed by a unique cyclization reaction. Th...
The iridoids comprise a large family of distinctive bicyclic monoterpenes that possess a wide range ...
The natural product class of iridoids, found in various species of flowering plants, harbors astonis...
The carbon skeleton of ecologically and pharmacologically important iridoid monoterpenes is formed i...
Terpene synthases typically form complex molecular scaffolds by concerted activation and cyclization...
Nepetalactones are iridoid monoterpenes with a broad range of biological activities produced by plan...
Metabolic pathways leading to benzylisoquinoline and monoterpene indole alkaloids in plants are reve...
Monoterpene indole alkaloids (MIAs) represent a structurally diverse, medicinally essential class of...
Thousands of natural products are derived from the fused cyclopentane-pyran molecular scaffold nepet...
Nepetalactones are iridoid monoterpenes with a broad range of biological activities produced by plan...
While cyclic ether forming terpene synthases are known, the basis for such heterocyclisation is uncl...
Class II diterpene cyclases catalyze bicyclization of geranylgeranyl diphosphate. While this reactio...
Terpene synthases often catalyze complex cyclization reactions that typically represent the committe...
Iridoids represent a large group of monoterpenoid compounds that apparently seem to be formed in pla...
The core structure of the iridoid monoterpenes is formed by a unique cyclization reaction. The enzym...
SummaryThe core structure of the iridoid monoterpenes is formed by a unique cyclization reaction. Th...
The iridoids comprise a large family of distinctive bicyclic monoterpenes that possess a wide range ...
The natural product class of iridoids, found in various species of flowering plants, harbors astonis...
The carbon skeleton of ecologically and pharmacologically important iridoid monoterpenes is formed i...
Terpene synthases typically form complex molecular scaffolds by concerted activation and cyclization...
Nepetalactones are iridoid monoterpenes with a broad range of biological activities produced by plan...
Metabolic pathways leading to benzylisoquinoline and monoterpene indole alkaloids in plants are reve...
Monoterpene indole alkaloids (MIAs) represent a structurally diverse, medicinally essential class of...
Thousands of natural products are derived from the fused cyclopentane-pyran molecular scaffold nepet...
Nepetalactones are iridoid monoterpenes with a broad range of biological activities produced by plan...
While cyclic ether forming terpene synthases are known, the basis for such heterocyclisation is uncl...
Class II diterpene cyclases catalyze bicyclization of geranylgeranyl diphosphate. While this reactio...
Terpene synthases often catalyze complex cyclization reactions that typically represent the committe...
Iridoids represent a large group of monoterpenoid compounds that apparently seem to be formed in pla...