CSDB glycosyltransferase search

1 glycosyltransferase activity has been found.
Please note that CSDB GT database covers only a few species: Arabidopsis thaliana, Escherichia coli, Saccharomyces cerevisiae, Acinetobacter baumannii.

Enzyme / Gene	Activity	Object	References
Enzyme name: mnn9p UniProt ID: P39107 CAZy family: GT62 Gene name: MNN9 Gene GenBank ID: 856057	Synthesized dimer: aDManp(1-6)DManp Donor (ID 34509): ?DManp(1-P-P-5)xXnucG Acceptor (ID 34722): ?DManp Status: semi-direct evidence in vivo Confirmation methods: in vitro (purified protein); mutation; expression in E. coli ID: 194 Notes: Recombinant Mnn9p alone (without Van1p) is able to transfer mannose from the sugar donor onto the acceptor substrates	Organism (ID 10837,16770): Saccharomyces cerevisiae BY4741, S288c Expressed in: E. coli Full structure (ID 34807): CSDB ID(s): 22704, 26964, 26965, 40756, 42205, 104618 Molecule role (analog of, precursor of): N-glycan	Striebeck at al. 2013 DOI: 10.1098/rsob.130022

#GTR ID	Enzyme name	Enzyme group	Enzyme Genbank ID	Derived ID mark	Enzyme Uniprot ID	Derived ID mark	CAZY family	Gene name	Gene Genbank ID	Derived ID mark	Gene cluster	Full structure CSDB structure ID	Side product CSDB structure ID	Full structure	Full structure is fragment (0|1)	Synthesized bond	Synthesized bond location (from root ~ subst position)	Donor structure ID	Substrate structure	Confirmation status	Methods used	Notes	Molecule role	Molecule is a model of role (0|1)	Molecule is a precursor of role (0|1)	Main CSDB record ID	Additional CSDB record IDs	CSDB organism IDs	Organism names	Organs and tissues	References (;-separated)
194	mnn9p				P39107		GT62	MNN9	856057			34807		aDManp(1-6)?DManp	0	aDManp(1-6)?DManp	1~6	?DManp(1-P-P-5)xXnucG	?DManp	semi-direct	in vitro (purified protein); mutation; expression in E. coli	Recombinant Mnn9p alone (without Van1p) is able to transfer mannose from the sugar donor onto the acceptor substrates	N-glycan	1	1		22704,26964,26965,40756,42205,104618	10837,16770	Saccharomyces cerevisiae BY4741, S288c	E. coli	Striebeck at al. 2013 (doi: 10.1098/rsob.130022)