Bacterial alpha-L-rhamnosidase 6 hairpin glycosidase domain. This family consists of bacterial rhamnosidase A and B enzymes. L-Rhamnose is abundant in biomass as a common constituent of glycolipids and glycosides, such as plant pigments, pectic polysaccharides, gums or biosurfactants. Some rhamnosides are important bioactive compounds. For example, terpenyl glycosides, the glycosidic precursor of aromatic terpenoids, act as important flavouring substances in grapes. Other rhamnosides act as cytotoxic rhamnosylated terpenoids, as signal substances in plants or play a role in the antigenicity of pathogenic bacteria.

Alpha-L-rhamnosidase N-terminal domain. This family consists of bacterial rhamnosidase A and B enzymes. This domain is probably involved in substrate recognition.

Bacterial alpha-L-rhamnosidase concanavalin-like domain. This family consists of bacterial rhamnosidase A and B enzymes. L-Rhamnose is abundant in biomass as a common constituent of glycolipids and glycosides, such as plant pigments, pectic polysaccharides, gums or biosurfactants. Some rhamnosides are important bioactive compounds. For example, terpenyl glycosides, the glycosidic precursor of aromatic terpenoids, act as important flavouring substances in grapes. Other rhamnosides act as cytotoxic rhamnosylated terpenoids, as signal substances in plants or play a role in the antigenicity of pathogenic bacteria.

Bacterial alpha-L-rhamnosidase C-terminal domain. This family consists of bacterial rhamnosidase A and B enzymes. L-Rhamnose is abundant in biomass as a common constituent of glycolipids and glycosides, such as plant pigments, pectic polysaccharides, gums or biosurfactants. Some rhamnosides are important bioactive compounds. For example, terpenyl glycosides, the glycosidic precursor of aromatic terpenoids, act as important flavouring substances in grapes. Other rhamnosides act as cytotoxic rhamnosylated terpenoids, as signal substances in plants or play a role in the antigenicity of pathogenic bacteria.

Ku-core domain, Ku-like subfamily; composed of prokaryotic homologs of the eukaryotic DNA binding protein Ku. The alignment includes the core domain shared by the prokaryotic YkoV-like proteins and the eukaryotic Ku70 and Ku80. The prokaryotic Ku homologs are predicted to form homodimers. It is proposed that the Ku homologs are functionally associated with ATP-dependent DNA ligase and the eukaryotic-type primase, probably as components of a double-strand break repair system.

Structureof alpha-L-rhamnosidase from Dictyoglumus thermophilum [Dictyoglomus thermophilum H-6-12],6I60_B Structure of alpha-L-rhamnosidase from Dictyoglumus thermophilum [Dictyoglomus thermophilum H-6-12]

CrystalStructure of Streptomyces avermitilis alpha-L-rhamnosidase [Streptomyces avermitilis MA-4680 = NBRC 14893],3W5N_A Crystal Structure of Streptomyces avermitilis alpha-L-rhamnosidase complexed with L-rhamnose [Streptomyces avermitilis MA-4680 = NBRC 14893]

Crystalstructure of native alfa-L-rhamnosidase from Aspergillus terreus [Aspergillus terreus]

Alpha-L-rhamnosidase OS=Formosa agariphila (strain DSM 15362 / KCTC 12365 / LMG 23005 / KMM 3901 / M-2Alg 35-1) OX=1347342 GN=BN863_22170 PE=2 SV=1

Alpha-L-rhamnosidase OS=Formosa agariphila (strain DSM 15362 / KCTC 12365 / LMG 23005 / KMM 3901 / M-2Alg 35-1) OX=1347342 GN=BN863_22090 PE=1 SV=2

Alpha-L-rhamnosidase OS=Alteromonas sp. (strain LOR) OX=1537994 GN=LOR_34 PE=1 SV=1

Alpha-L-rhamnosidase OS=Streptomyces avermitilis (strain ATCC 31267 / DSM 46492 / JCM 5070 / NBRC 14893 / NCIMB 12804 / NRRL 8165 / MA-4680) OX=227882 GN=SAVERM_828 PE=1 SV=1

Bifunctional sulfatase/alpha-L-rhamnosidase OS=Formosa agariphila (strain DSM 15362 / KCTC 12365 / LMG 23005 / KMM 3901 / M-2Alg 35-1) OX=1347342 GN=BN863_22250 PE=1 SV=2