Scheme 1
Reported synthetic approaches to 1-thioglycoside synthesis.
Figure 1
1-Thioglicosides with known biological activities.
Scheme 2
General procedure for the first report of metal-catalyzed cross-coupling 1-thioglycoside synthesis.
Figure 2
Selected examples of metal-catalyzed cross-coupling synthesis of 1-thioglycosides reported by Štícha and co workers.21
Scheme 3
General procedure for 1-thioglycoside synthesis using CuCl as catalyst.
Figure 3
Selected examples of 1-thioglycoside synthesis using CuCl as catalyst.
Scheme 4
General procedure for the first copper-catalyzed C-H activation using 1-thiosugars.
Figure 4
Selected examples for the first copper-catalyzed C-H activation using 1-thiosugars.
Scheme 5
General procedure for copper-catalyzed C-H thiolation in the pseudo-anomeric position of glycals.
Figure 5
Selected examples of copper-catalyzed C-H thiolation in the pseudo-anomeric position of glycals.
Scheme 6
General procedure for copper(I)-catalyzed Sandemeyer-type S-arylation of 1-thiosugars.
Figure 6
Selected examples of copper(I)-catalyzed Sandemeyer-type S-arylation of 1-thiosugars.
Scheme 7
General procedure for palladium-catalyzed functionalization of 1-thiosugars via C-S cross-coupling.
Figure 7
Biologically active compounds synthesized with palladium-catalyzed functionalization of 1-thiosugars via C-S cross-coupling.
Scheme 8
General procedure for palladium-catalyzed C-S cross-coupling between 1-thiosugars and 2-iodobenzoates, and posterior lactonization or lactamization.
Scheme 9
General procedure for Pd-G3-xantphos-catalyzed C-S cross-coupling for 1-thiosugars functionalization.
Figure 8
General mechanism for Pd-G3-xantphos-catalyzed C-S cross-coupling.
Figure 9
Scope for Pd-G3-xantphos-catalyzed C-S cross-coupling for the functionalization of 1-thiosugars.
Scheme 10
General procedure for the Pd-G3-xantphos-catalyzed synthesis of (1→2)-S-linked saccharides.
Figure 10
Selected examples of the Pd-G3-xantphos-catalyzed synthesis of (1→2)-S-linked saccharides.
Scheme 11
General procedure for Pd-G3-xantphos-catalyzed thyogliconjugate synthesis.
Figure 11
Selected examples for Pd-G3-xantphos-catalyzed thyogliconjugate synthesis.
Scheme 12
General procedure for Pd-G3-xantphos-catalyzed thioglycoconjugation of iodoaryl peptides and amino acids.
Figure 12
Scope of the Pd-G3-xantphos-catalyzed thioglycoconjugation of iodoaryl peptides and amino acids.
Scheme 13
Coupling between 1-thiosugars and mono-, di-, and tri-iodopeptides.
Scheme 14
General procedure for Pd-G3-xantphos-catalyzed three-component tandem reaction.
Figure 13
Selected examples for Pd-G3-xantphos-catalyzed three-component tandem reaction.
Scheme 15
General procedure for Pd-G3-xantphos-catalyzed synthesis of S-aryl S-trifluoromethylsulfoximine thioglycosides.
Figure 14
Selected examples for Pd-G3-xantphos-catalyzed synthesis of S-aryl S-trifluoromethylsulfoximine thioglycosides.
Scheme 16
General procedure for palladium-catalyzed synthesis of aryl thio/selenoglycosides via Catellani strategy.
Figure 15
Selected examples for palladium-catalyzed synthesis of aryl thio/selenoglycosides via Catellani strategy.
Scheme 17
General procedure for Pd-G3-xantphos-catalyzed functionalization of 1-thiosugars with BTD moiety.
Figure 16
Selected examples for Pd-G3-xantphos-catalyzed functionalization of 1-thiosugars with BTD moiety.
Scheme 18
General procedure for nickel-catalyzed functionalization of unprotected 1-thiosugars.
Figure 17
Scope for the nickel-catalyzed functionalization of unprotected 1-thiosugars.
Scheme 19
General procedure for 1-thioglycoside synthesis via dual-photoredox catalysis.
Figure 18
Selected examples for 1-thioglycoside synthesis via dual-photoredox catalysis.
Scheme 20
General procedure for nickel-catalyzed functionalization of sulfoximines with 1-thiosugars via dual photoredox catalysis.
Figure 19
Selected examples for nickel-catalyzed functionalization of sulfoximines with 1-thiosugars via dual photoredox catalysis.
Scheme 21
General procedure for electrochemical nickel-catalyzed Migita cross-coupling.
Figure 20
Scope for electrochemical nickel-catalyzed Migita cross-coupling.
Figure 21
General mechanism for thiol-ene reaction with 1-thiosugars.
Scheme 22
General procedure for the photoinduced thiol-ene coupling between 1-thiosugars and sugar alkenes.
Figure 22
Selected examples for the photoinduced thiol-ene coupling between 1-thiosugars and sugar alkenes.
Scheme 23
General procedure for the photoinduced thiol-ene coupling between 1-thiosugars and allyl or vinyl glicinates.
Figure 23
Selected examples of the photoinduced thiol-ene coupling between 1-thiosugars and allyl or vinyl glicinates.
Scheme 24
General procedure for the photoinduced thiol-ene coupling between 1-thiosugars and glycals.
Scheme 25
General procedure for the photoinduced thiol-ene coupling between 2-acetoxy glycals or 2,3-unsaturated glycosides and 1-thiosugars.
Scheme 26
General procedure for the photoredox-catalyzed thiol-ene coupling between thiosugars and amino acid derivatives for the synthesis of glycoconjugates.
Figure 24
Selected examples of the photoredox-catalyzed thiol-ene coupling between thiosugars and amino acid derivatives for the synthesis of glycoconjugates.
Scheme 27
General procedure for the photoredox-catalyzed thiol-ene coupling between thiosugars and alkenes.