Automated assembly of oligosaccharides containing multiple cis-glycosidic linkages.
Identifieur interne : 000F81 ( PubMed/Corpus ); précédent : 000F80; suivant : 000F82Automated assembly of oligosaccharides containing multiple cis-glycosidic linkages.
Auteurs : Heung Sik Hahm ; Mattan Hurevich ; Peter H. SeebergerSource :
- Nature communications [ 2041-1723 ] ; 2016.
English descriptors
- KwdEn :
- MESH :
- chemical , chemical synthesis : Oligosaccharides.
- chemical , chemistry : Galactosides, Glucosides, Monosaccharides.
- methods : Automation, Laboratory.
- Glycosylation, Stereoisomerism.
Abstract
Automated glycan assembly (AGA) has advanced from a concept to a commercial technology that rapidly provides access to diverse oligosaccharide chains as long as 30-mers. To date, AGA was mainly employed to incorporate trans-glycosidic linkages, where C2 participating protecting groups ensure stereoselective couplings. Stereocontrol during the installation of cis-glycosidic linkages cannot rely on C2-participation and anomeric mixtures are typically formed. Here, we demonstrate that oligosaccharides containing multiple cis-glycosidic linkages can be prepared efficiently by AGA using monosaccharide building blocks equipped with remote participating protecting groups. The concept is illustrated by the automated syntheses of biologically relevant oligosaccharides bearing various cis-galactosidic and cis-glucosidic linkages. This work provides further proof that AGA facilitates the synthesis of complex oligosaccharides with multiple cis-linkages and other biologically important oligosaccharides.
DOI: 10.1038/ncomms12482
PubMed: 27580973
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pubmed:27580973Le document en format XML
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<front><div type="abstract" xml:lang="en">Automated glycan assembly (AGA) has advanced from a concept to a commercial technology that rapidly provides access to diverse oligosaccharide chains as long as 30-mers. To date, AGA was mainly employed to incorporate trans-glycosidic linkages, where C2 participating protecting groups ensure stereoselective couplings. Stereocontrol during the installation of cis-glycosidic linkages cannot rely on C2-participation and anomeric mixtures are typically formed. Here, we demonstrate that oligosaccharides containing multiple cis-glycosidic linkages can be prepared efficiently by AGA using monosaccharide building blocks equipped with remote participating protecting groups. The concept is illustrated by the automated syntheses of biologically relevant oligosaccharides bearing various cis-galactosidic and cis-glucosidic linkages. This work provides further proof that AGA facilitates the synthesis of complex oligosaccharides with multiple cis-linkages and other biologically important oligosaccharides.</div>
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<Abstract><AbstractText>Automated glycan assembly (AGA) has advanced from a concept to a commercial technology that rapidly provides access to diverse oligosaccharide chains as long as 30-mers. To date, AGA was mainly employed to incorporate trans-glycosidic linkages, where C2 participating protecting groups ensure stereoselective couplings. Stereocontrol during the installation of cis-glycosidic linkages cannot rely on C2-participation and anomeric mixtures are typically formed. Here, we demonstrate that oligosaccharides containing multiple cis-glycosidic linkages can be prepared efficiently by AGA using monosaccharide building blocks equipped with remote participating protecting groups. The concept is illustrated by the automated syntheses of biologically relevant oligosaccharides bearing various cis-galactosidic and cis-glucosidic linkages. This work provides further proof that AGA facilitates the synthesis of complex oligosaccharides with multiple cis-linkages and other biologically important oligosaccharides.</AbstractText>
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<CoiStatement>P.H.S. is a shareholder of GlycoUniverse, a company involved in automated carbohydrate synthesis. H.S.H. and M.H. declare no competing financial interest.</CoiStatement>
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