UniProt ID
stringlengths
6
10
Protein Sequence
stringlengths
2
35.2k
Functional Description
stringlengths
5
30.7k
Q9AY60
MEAVVVDAGSKLLKAGIALPDQSPSLVMPSKMKLEVEDGQMGDGAVVEEVVQPVVRGFVKDWDAMEDLLNYVLYSNIGWEIGDEGQILFTEPLFTPKALREQLAQLMFEKFNVSGFYDSEQAVLSLYAVGRISGCTVDIGHGKIDIAPVCEGAVQHIASKRFDIGGTDLTNLFAEELKKSNSSVNIDISDVERLKEQYACCAEDQMAFEAIGSSCRPERHTLPDGQVITIEKERYIVGEALFQPHILGLEDYGIVHQLVTSVSNVTPEYHRQLLENTMLCGGTASMTGFEDRFQREANLSASAICPSLVKPPEYMPENLARYSAWLGGAILAKVVFPQNQHVTKGDYDETGPSIVHKKCF
Essential protein required during embryogenesis and all plant development stages, probably through a chromatin-mediated regulation of gene expression. Belongs to the actin family. Plant ARP7 subfamily.
Q8C404
MGKLSPCTGRSRPGGPGPQLPLLLLLLQLLLLLLSPARASGATQPPHVVFVLADDLGWNDLGFHGSVIRTPHLDALAAGGVVLDNYYVQPLCTPSRSQLLTGRYQIHLGLQHYLIMTCQPSCVPLDEKLLPQLLKEAGYATHMVGKWHLGMYRKECLPTRRGFDTYFGYLLGSEDYYTHEACAPIESLNGTRCALDLRDGEEPAKEYNNIYSTNIFTKRATTVIANHPPEKPLFLYLAFQSVHDPLQVPEEYMEPYGFIQDKHRRIYAGMVSLMDEAVGNVTKALKSHGLWNNTVFIFSTDNGGQTRSGGNNWPLRGRKGTLWEGGIRGTGFVASPLLKQKGVKSRELMHITDWLPTLVDLAGGSTNGTKPLDGFNMWKTISEGHPSPRVELLHNIDQDFFDGLPCPGKNMTPAKDDSFPLEHSAFNTSIHAGIRYKNWKLLTGHPGCGYWFPPPSQSNVSEIPPVGPPTKTLWLFDINQDPEERHDVSREHPHIVQNLLSRLQYYHEHSVPSHFPPLDPRCDPKSTGVWSPWM
Removes sulfate groups from chondroitin-4-sulfate (C4S) and regulates its degradation (By similarity). Involved in the regulation of cell adhesion, cell migration and invasion in colonic epithelium (By similarity). In the central nervous system, is a regulator of neurite outgrowth and neuronal plasticity, acting through the control of sulfate glycosaminoglycans and neurocan levels (By similarity). Hydrolysis of the 4-sulfate groups of the N-acetyl-D-galactosamine 4-sulfate units of chondroitin sulfate and dermatan sulfate. Binds 1 Ca(2+) ion per subunit. Inhibited by ethanol (By similarity). Homodimer. The conversion to 3-oxoalanine (also known as C-formylglycine, FGly), of a serine or cysteine residue in prokaryotes and of a cysteine residue in eukaryotes, is critical for catalytic activity. Belongs to the sulfatase family.
Q32KK1
MGELSGCTGGSRAGGPGPRLPLLLLLLLWPARASDAAPPPHVVFVLADDLGWNDLGFHGSVIRTPHLDALAAGGVVLDNYYVQPLCTPSRSQLLTGRYQIHMGLQHYLIMTCQPNCVPLDEKLLPQLLKDAGYATHMVGKWHLGMYRKECLPTRRGFDTYFGYLLGSEDYYTHEACAPIECLNGTRCALDLRDGEEPAKEYTDIYSTNIFTKRATTLIANHPPEKPLFLYLAFQSVHDPLQVPEEYMEPYDFIQDKHRRIYAGMVSLLDEAVGNVTKALKSRGLWNNTVLIFSTDNGGQTRSGGNNWPLRGRKGTLWEGGIRGAGFVASPLLKQKGVKSRELMHITDWLPTLVNLAGGSTHGTKPLDGFDVWETISEGSPSPRVELLLNIDPDFFDGLPCPGKNTTPEKNDSFPLEHSAFNTSIHAGIRYKNWKLLTGYPGCGYWFPPPSQSNISEVPSVDSPTKTLWLFDINRDPEERHDVSREHPHIVQNLLSRLQYYHEHSVPSYFPPLDPRCDPKGTGVWSPWM
Removes sulfate groups from chondroitin-4-sulfate (C4S) and regulates its degradation (PubMed:24311516). In the central nervous system, is a regulator of neurite outgrowth and neuronal plasticity, acting through the control of sulfate glycosaminoglycans and neurocan levels (PubMed:24311516). Involved in the regulation of cell adhesion, cell migration and invasion in colonic epithelium (By similarity). Hydrolysis of the 4-sulfate groups of the N-acetyl-D-galactosamine 4-sulfate units of chondroitin sulfate and dermatan sulfate. Binds 1 Ca(2+) ion per subunit. Inhibited by ethanol. Homodimer. Defects in Arsb are the cause of mucopolysaccharidosis type VI (MPS-VI) (PubMed:8575749). Belongs to the sulfatase family.
P76708
MLLAGAIFVLTIVLVIWQPKGLGIGWSATLGAVLALVTGVVHPGDIPVVWNIVWNATAAFIAVIIISLLLDESGFFEWAALHVSRWGNGRGRLLFTWIVLLGAAVAALFANDGAALILTPIVIAMLLALGFSKGTTLAFVMAAGFIADTASLPLIVSNLVNIVSADFFGLGFREYASVMVPVDIAAIVATLVMLHLYFRKDIPQNYDMALLKSPAEAIKDPATFKTGWVVLLLLLVGFFVLEPLGIPVSAIAAVGALILFVVAKRGHAINTGKVLRGAPWQIVIFSLGMYLVVYGLRNAGLTEYLSGVLNVLADNGLWAATLGTGFLTAFLSSIMNNMPTVLVGALSIDGSTASGVIKEAMVYANVIGCDLGPKITPIGSLATLLWLHVLSQKNMTISWGYYFRTGIIMTLPVLFVTLAALALRLSFTL
Involved in arsenical resistance. Thought to form the channel of an arsenite pump (By similarity). Belongs to the ArsB family.
Q5HF02
MTTLATLIFLVTLLFVLWQPKGLDIGITALTGAFIAVITGVVSFSDVFEVTGIVWNATLTFVSVILISLILDKVGLFEWSAIHMLHASKGNGLKMFVYIILLGAIVAAFFANDGAALILTPIVLAMVKNIGFSKRAIFPFIIASGFIADTTSLPLIVSNLVNIISADYFHVGFVRYFSRMIIPNLFSLLASIIVLWLYFRKAIPKTFDDNNIKHPKDAINDLKLFKISWIVLVILLFGYLISEFTKIPVSIFTGIIAFIFLMLARKSNAVNIKQVIKGAPWNIVLFSIGMYIVVFGLRNAGITLILAKILEYISNYGLFSTILGMGFISAFLSSIMNNMPTVLIDAIAIGQSNVHGMLKEGLIYANVIGSDLGPKITPIGSLATLLWLHVLTQKDVKISWGTYFKTGIIITIPVLFITLIGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
Q99T95
MTTLATLIFLVTLLFVLWQPKGLDIGITALTGAFIAVITGVVSFSDVFEVTGIVWNATLTFVSVILISLILDKVGLFEWSAIHMLHASKGNGLKMFVYIILLGAIVAAFFANDGAALILTPIVLAMVKNIGFSKRAIFPFIIASGFIADTTSLPLIVSNLVNIISADYFHVGFVRYFSRMIIPNLFSLLASIIVLWLYFRKAIPKTFDDNNIKHPKDAINDLKLFKISWIVLVILLFGYLISEFTKIPVSIFTGIIAFIFLMLARKSNAVNIKQVIKGAPWNIVLFSIGMYIVVFGLRNAGITLILAKILEYISNYGLFSTILGMGFISAFLSSIMNNMPTVLIDAIAIGQSNVHGMLKEGLIYANVIGSDLGPKITPIGSLATLLWLHVLTQKDVKISWGTYFKTGIIITIPVLFITLIGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
Q6GFT0
MTTLATFIFLVTLLFVLWQPKGLDIGFTALAGAFIAVITGVVSFSDVFEVTGIVWNATLTFVSVILISLILDKVGLFEWSAIHMLHASKGSGLKMFVYIILLGAVVAAFFANDGAALILTPIVLAMVKNIGFSKRAIFPFIIASGFIADTTSLPLIVSNLVNIISADYFNISFSQYLSRMIIPNLFSLLASLLVLWLYFRKAIPKSFDANHIKKPIDAINDLKLFKISWIVLVILLFGYLISEFTKIPVSIFTGIIAFIFLILARKSNAVNIKQVIKGAPWNIVLFSIGMYIVVFGLRNAGITLILAKILEYISNYGLFSTILGMGFISAFLSSIMNNMPTVLIDAIAIGQSNVHGMLKEGLIYANVIGSDLGPKITPIGSLATLLWLHVLTQKDVKISWGTYFKTGIIITIPVLFFTLLGLYLTLILF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
Q6G8F6
MTTLATLIFLVTLLFVLWQPKGLDIGITALTGAFIAVITGVVSFSDVFEVTGIVWNATLTFVSVILISLILDKVGLFEWSAIHMLHASKGNGLKMFAYIILLGAIVAAFFANDGAALILTPIVLAMVKNIGFSKRAIFPFIIASGFIADTTSLPLIVSNLVNIISADYFHIGFIRYFSRMIIPNLFSLLASIIVLWLYFRKAIPKTFDDNNIKHPKDAINDLKLFKISWIVLVILLFGYLISEFTKIPVSIFTGIIAFIFLMLARKSNALNIKQVIKGAPWNIVLFSIGMYIVVFGLRNAGITLILAKILEYISNYGLFSTILGMGFISAFLSSIMNNMPTVLIDAIAIGQSNVHGMLKEGLIYANVIGSDLGPKITPIGSLATLLWLHVLTQKDVKISWGTYFKTGIIITIPVLFITLIGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
P30329
MTILAIVIFLLTLTFVIWQPKGLDIGITALIGAVVAIITGVVSLSDVLEVTGIVWNATLTFVAVILISLILDEIGFFEWSAIHMVKASNGNGLKMFVFIMLLGAIVAAFFANDGAALILTPIVLAMVRNLGFNQKVIFPFIIASGFIADTTSLPLIVSNLVNIVSADYFDIGFIEYFSRMIIPNIFSLIASILVLWLYFRKSIPKTFDTENLSDPKSAIKDSKLFKLSWIVLAVLLVGYLVSEFIQIPVSIIAGIIAFIFVILARKSKAVHTKQVIKGAPWNIVVFSIGMYLVVFGLKNVGITTILGDVLTNISNYGLFSSIMGMGFIAAFLSSIMNNMPTVLIDAIAIGQSSATGILKEGMVYANVIGSDLGPKITPIGSLATLLWLHVLTQKGVKISWGTYFKTGIIITIPVLFVTLLGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
Q8NW09
MTTLATLIFLVTLLFVLWQPKGLDIGITALTGAFIAVITGVVSFSDVFEVTGIVWNATLTFVSVILISLILDKVGLFEWSAIHMLHASKGNGLKMFVYIILLGAIVAAFFANDGAALILTPIVLAMVKNIGFSKRAIFPFIIASGFIADTTSLPLIVSNLVNIISADYFHIGFIRYFSRMIIPNLFSLLASIIVLWLYFRKAIPKTFDDNNIKHPKDAINDLKLFKISWIVLVILLFGYLISEFTKIPVSIFTGIIAFIFLMLARKSNALNIKQVIKGAPWNIVLFSIGMYIVVFGLRNAGITLILAKILEYISNYGLFSTILGMGFISAFLSSIMNNMPTVLIDAIAIGQSNVHGMLKEGLIYANVIGSDLGPKITPIGSLATLLWLHVLTQKDVKISWGTYFKTGIIITIPVLFITLIGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
Q5HRI3
MTTVLAIVIFFITLTLIIWQPKGLDIGISAIIGALLVIITGVVNFTDILEVIGIVWNATLTFVSVILISLILDEIGFFEWSAIHMVKASNGHGLKMFIYIMILGALIAAFFANDGAALILTPIVLAMIRNLGFNNKLVFPFIIACGFIADSTSLPLVVSNLVNIVSADYFGIKFVEYLMRMFIPNLFSLLASILVLWFYFRKSIPKTFDISSISEPKDAIRDTRLFKISWIILALLLIGYLVSEFIHIPVSFITGAIAVIFILLARQSNVVHTKQVIKGAPWNIVIFSIGMYLVIFGLKNVGMTLILADILSSIAQHGLFSSIMGMGFVSAFLSAIMNNMPTVLIDAIAIDQSHAISSIKEGMIYANVIGADLGPKITPIGSLATLLWLHVLVQKGVKISWGTYFKTGIVITIPVLFFTLLGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
Q8CQF4
MTILAITIFILTLIFVIWQPKGLDIGITALIGAVIAIITGVVSFSDVLEVTGIVWNATLTFVAVILISLILDEIGFFEWSAIHMVRASKGNGLKMFVYIMLLGAIVAAFFANDGAALILTPIVLAMVRSLGFDKKAVFPFIIASGFIADTTSLPLIVSNLVNIVSADYFDIGFVEYFSKMIIPNIFSLIASILVLWLYFRKSIPRKFDAVNIREPKEAIKDKKLFNISWIVLTVLLVGYLISEFINIPVSIIAGIIALIFVLLARKSKAVHTKQVIKGAPWNIVLFSIGMYLVVFGLKNVGITTLLSDVLTNISSYGLFSSIMGMGFISAFLSSIMNNMPTVLIDAIAIGQSQTTSILKEGMIYANVIGSDLGPKITPIGSLATLLWLHVLTQKGVKISWGQYFKIGIIITIPVLFITLLGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
Q01255
MTILAIVIFLLTLIFVIWQPKGLDIGITALIGAVVAIITGVVSFSDVLEVTGIVWNATLTFVAVILISLILDEIGFFEWSAIHMVKASNGNGLKMFVFIMLLGAIVAAFFANDGAALILTPIVLAMVRNLGFNKKVIFPFIIASGFIADTTSLPLIVSNLVNIVSADYFDIGFIEYFSRMIIPNIFSLIASILVLWLYFRKSIPKTFNTENLSDPKNVIKDPKLFKLSWIVLAILLVGYLVSEFIQIPVSIIAGIIALIFVILARKSKAVHTKQVIKGAPWNIVVFSIGMYLVVFGLKNVGITTILGDILTNISSYGLFSSIMGMGFIAAFLSSIMNNMPTVLIDAIAIGQSSATGILKEGMVYANVIGSDLGPKITPIGSLATLLWLHVLTQKGVKISWGTYFKTGIIITIPVLFVTLLGLYLTLIIF
Involved in arsenical resistance. Thought to form the channel of an arsenite pump. Belongs to the ArsB family.
P74985
MLLAGSIFVLTLILAIWQPRGLSIGWSASICAALALVSGVIHVGDIPVVWNIVWNATATFIAVIIISLLLDESGFFEWAALHVSRWGNGRGRLLFTWIVLLGAAVAALFANDGAALILTPIVIAMLLALGFSKRTTLAFVMAAGFIADTASLPLIVSNLVNIVSADFFRLGFTEYASVMLPVDIAAIAATLGMLHLFFRRDIPATYDVSLLKMPASAIKDPATFRAGWIVLVLLLVGFFVLEPLGIPVSAIAAVGTVVLFAVAKKGHAINTGKVLRGAPWQIVVFSLGMYLVVYGLRNAGLTEYLSGVLNMLADKGLLAATFGTGFLTAFLSSVMNNMPTVLVGALSIDGSTASGVIKEAMIYANVIGCDLGPKITPIGSLATLLWLHVLSQKNMTISWGYYFRTGIIMTLPVLFVTLAALALRLSVTL
Involved in arsenical resistance. Thought to form the channel of an arsenite pump (By similarity). Belongs to the ArsB family.
Q74NT6
MENKKTIYFLCTGNSCRSQMAEAWGKKYLGDKWNVLSAGIEAHGVNPNAIKAMKEVDIDITDQTSDIIDRDILDKADLVVTLCGHANDVCPTTPPHVKRVHWGFDDPAGQEWSVFQRVRDEIGARIKKYAETGE
Catalyzes the reduction of arsenate [As(V)] to arsenite [As(III)]. [thioredoxin]-dithiol + arsenate + H(+) = [thioredoxin]-disulfide + arsenite + H2O Belongs to the low molecular weight phosphotyrosine protein phosphatase family. Thioredoxin-coupled ArsC subfamily.
Q8NQC7
MNNQPSVLFVCVGNGGKSQMAAALAKKHAGDALKVYSAGTKPGTKLNQQSLDSIAEVGADMSQGFPKGIDQELIKRVDRVVILGAEAQLEMPIDANGILQRWVTDEPSERGIEGMERMRLVRDDIDARVQNLVAELTQNA
Involved in defense against toxic arsenate. Involved in the mycothiol/myoredoxin redox pathway which uses a mycothioltransferase mechanism; facilitates adduct formation between arsenate and mycothiol. arsenate + mycothiol = arseno-mycothiol + H2O By arsenite. Belongs to the low molecular weight phosphotyrosine protein phosphatase family.
P08692
MSNITIYHNPACGTSRNTLEMIRNSGTEPTIILYLENPPSRDELVKLIADMGISVRALLRKNVEPYEQLGLAEDKFTDDQLIDFMLQHPILINRPIVVTPLGTRLCRPSEVVLDILQDAQKGAFTKEDGEKVVDEAGKRLK
Involved in resistance to arsenate (PubMed:3021763, PubMed:8003492, PubMed:7577935). Catalyzes the reduction of arsenate [As(V)] to arsenite [As(III)] (PubMed:8003492, PubMed:7577935, PubMed:14592722). The resulting arsenite is then extruded from the cell via the ArsAB transport system (Probable). [glutaredoxin]-dithiol + arsenate + glutathione + H(+) = arsenite + glutathionyl-S-S-[glutaredoxin] + H2O Inhibited by the thiol reagents iodoacetate (IAA) and N-ethylmaleimide (NEM) (PubMed:7577935). Activity is rapidly inactivated by the histidine-modifying reagent diethylpyrocarbonate (DEPC) (PubMed:8969183). kcat is 0.53 sec(-1) with arsenate as substrate. kcat is 0.218 sec(-1) with Grx2 as substrate. Optimum pH is 6.3-6.8. Monomer in solution. Belongs to the ArsC family.
Q5HRI4
MQKKTIYFICTGNSCRSQMAEGFGKLILGDKWNVYSAGIETHGVNPHAIKAMKEVGIDISHHTSDLINNDILIASDIVVTLCSDADANCPVLPKNVTKEHWGFDDPAGKDWSEFQRVRDEIKAAIETFAHRV
Catalyzes the reduction of arsenate [As(V)] to arsenite [As(III)]. [thioredoxin]-dithiol + arsenate + H(+) = [thioredoxin]-disulfide + arsenite + H2O Belongs to the low molecular weight phosphotyrosine protein phosphatase family. Thioredoxin-coupled ArsC subfamily.
Q4LAB5
MDKKTIYFICSGNSCRSQMAEGWGKEILGEDWNVYSAGIETHGVNPKAIEAMKEVDIDISNHTSDLIDSDILEQSDLVVTLCSDADDNCPILPPNVKKEHWGFDDPAGKEWPEFQRVRDEIGKRIQEFKETLV
Catalyzes the reduction of arsenate [As(V)] to arsenite [As(III)]. [thioredoxin]-dithiol + arsenate + H(+) = [thioredoxin]-disulfide + arsenite + H2O Belongs to the low molecular weight phosphotyrosine protein phosphatase family. Thioredoxin-coupled ArsC subfamily.
Q8TGM5
MPPGIPRGAMCVQRFDDSRNSAIHITYRISLRSSSMREPRDPLLKVFNILKFPVTKILVFDKNLMNR
Encoded on the antisense strand of the nuclear 35S rDNA. Product of a dubious gene prediction unlikely to encode a functional protein. Because of that it is not part of the S.cerevisiae S288c complete/reference proteome set.
D6VUK2
MFSLSSLSSSGGHSEQKERERISYFDIRINSPYKDIILIQGSPLELSSIPLSGNLVISVKNEIVVKKISLRLVGRFKLEFLQVGRYKKNSSSLASLVKEKRKIFECYWDNLLVSSKGDVLVGGENAENQHNSSSGRSTSNQDMDTSGNAIFLSKRSLSSPVFNKIIRRKTHSSHRKILELPENGVTGTPFEGLRENARSRSSSSNTLNNNSHSYSNRDGSGSSYLFLMKRGNYELPFNTMLPPEVCETIEGLQSGSILYSFEAIIDGRQLWDTDLSVHTSPHGPIGSTSTSGNGMRTKNKIIIKKFKYLRILRTLSMDNLAMQEEISVGNTWRDKLQYETSIPSRAVPIGSTTPVKIKIFPFEKNIRLDRIEMALIQYYAMKDSSAQIYDDEIAVMKITHLADFGPLTDKLDVDCPFTIPDNLKQITQDCCLQDNLIRVMHKLQVRILLQRQVDGEYKNLEIKAQLPMLLFISPHLPMKGRLVLFDKHDGKIHFRPGELVPLFLTTYPAQGLTPGVELNSTTTAHLALPQPPPNYHESTNDHLMPALQPLGADSVVLTVPSYEQAQAQASASSYVTGSVPAYCDDD
May regulate endocytosis by recruiting RSP5 ubiquitin ligase activity to specific plasma membrane proteins in response to extracellular stimuli. Interacts with RSP5. Ubiquitinated by RSP5. Present with 1970 molecules/cell in log phase SD medium. Belongs to the arrestin family.
B8NLM9
MGHEDAVYLAKLAEQAERYEEMVENMKVVASADVELTVEERNLLSVAYKNVIGARRASWRIVTSIEQKEESKGNESQVTLIKEYRQKIESELAKICDDILEVLDKHLIPSAQSGESKVFYHKMKGDYHRYLAEFAIGDRRKGAADASLEAYKAATEVAQTDLAPTHPIRLGLALNFSVFYYEILNSPDQACHLAKLAFDDAIAELDTLSEESYKDSTLIMQLLRDNLTLWTSSEPSRC
14-3-3 family protein that plays a role in the morphological differentiation and secondary metabolism biosynthesis (PubMed:29247055). Required for normal fungal morphogenesis in an environment-dependent manner, affecting the balance between production of conidiophores and the formation of sclerotia, resistant structures that are necessary for the dissemination and survival (PubMed:29247055). Acts as a positive regulator of conidiation and a negative regulator of sclerotial production (PubMed:29247055). Regulates also the production of secondary metabolites such as aflatoxin, but also the indole-tetramic acid mycotoxin cyclopiazonic acid (CPA) and ustiloxin, an inhibitor of microtubule assembly (PubMed:29247055). Diminishes colony growth and affects conidiation (PubMed:29247055). Decrease in the expression of transcription factors brlA and wetA, components of the central regulatory pathway essential for conidiophore formation (PubMed:29247055). Increases the expression of nsdC, encoding a transcription factor necessary for normal sclerotial production, ans subsequent production of sclerotia (PubMed:29247055). Increases also the production of aflatoxinvia the induction of aflatoxin cluster regulatory genes aflR, aflJ and ver1 (PubMed:29247055). Dicreases the expression of the polyketide synthase-nonribosomal peptide synthetase (PKS/NRPS) gene (AFLA_139490), essential in the synthesis of cyclopiazonic acid (CPA), and of ustD, involved in the production of ustiloxin (PubMed:29247055). Belongs to the 14-3-3 family.
D4GUZ4
MPGLLSDILAWVVIGTFVAGAVANGRDRELGRRVMTAAWVLFALFWLQLIPHFTLVHKSYIEGLLTIAAVPASLYAGWLLYNGRDTLFVLSRAVAAMGVVYLPFETIPAFTLLGATVPAPRGVLMETVAAQTRFLIESLGYTPQMIVGDQGYLNTFLWMQGSHRLEISVVLACTGLGSIAIFAGLIAAVDAPMGRKLRGLAIAVPIIYALNLLRTTFIAISVGKQYFHLFVDEVLFLFGSSDPYMVSFFISDRIISQALAVVALVGVTYLVVHEVPELLTVIEDVLYMVTGDEYDLRNELGLD
Transpeptidase that recognizes and modifies its substrate by proteolytic cleavage of a sorting signal. Following cleavage, a covalent intermediate is formed via a thioester bond between the archaeosortase and its substrate, which is then transferred and covalently attached to the cell membrane (Probable). This sortase recognizes a tripartite structure consisting of a conserved Pro-Gly-Phe (PGF) motif, followed by a transmembrane alpha helix domain and a cluster of basic residues, usually at the C-terminus of target proteins (Probable). Confirmed substrates include the cell surface S-layer glycoprotein Csg and HVO_0405 (PubMed:23651326, PubMed:26712937, PubMed:28069824). ArtA is required for the C-terminal processing of Csg and for its lipidation and attachment to the archaeal plasma membrane (PubMed:23651326, PubMed:26712937). It is also required for the processing of HVO_0405, which contains an atypical central tripartite structure (PubMed:28069824). Deletion of the gene results in poor growth, especially under low-salt conditions, alterations in cell shape and in the S-layer, impaired motility and impaired conjugation. Belongs to the exosortase/archaeosortase family. Archaeosortase A subfamily.
Q3IS61
MSLLEAIAELHVIPYTDVLAWVVMAAFIAGVAADYRDNLLAARRLTAGAWWLFAVFWFVLIQHFAFVHRSVVQTVLILIAVPACLYVGWLVFAGRDSLLTLSRAVAFMTVIYLPFETSELARGLLIEAVAFQTATVIDALSLADGMEYMQDPDEGSTLMNTFWFPETGRASRVVFECTGIGAMSIFGGLIAAVNAPLRRKAVGIALSISIIWVLNIGRNVFIALANGYQWFAYSWLEGPIMALFGLTDPARVSFFVADRVLAQLLAVVALAGLAWFIARWVPELLDIAEELLSIVGIDVELHHPSVDRTDTDPAD
Transpeptidase that recognizes and modifies its substrate by proteolytic cleavage of a sorting signal. Following cleavage, a covalent intermediate is formed via a thioester bond between the archaeosortase and its substrate, which is then transferred and covalently attached to the cell membrane. Belongs to the exosortase/archaeosortase family. Archaeosortase A subfamily.
P81329
MGNKNAIYILRFLIYFFIFYYILKMLEGNIMDLLTITLSKLLNLKFYKNEIIVGKNIIEISSPCTCSLEMALFLGYIFGTPDVPIKYKISYSVFGLSIITISNILRIILIINYSNMINYNVVHDVISFIIFPIALFLNWFWIYLLKMKKIIMFK
Transpeptidase that recognizes and modifies its substrate by proteolytic cleavage of a sorting signal. Following cleavage, a covalent intermediate is formed via a thioester bond between the archaeosortase and its substrate, which is then transferred and covalently attached to the cell membrane. Belongs to the exosortase/archaeosortase family. Archaeosortase D subfamily.
Q60336
MGSLLMERNFMVEDTFTNGKLSKKEKILFLIKFYIIFLVVFFILSYFGKYLIGIVTYLSYIFTKIIISDARLADNFIYLPNNTVEVVEECTGSFLIAGLLALIIVYSKNIKEFIIGIFFVLLAFFVNIFRIVLICYLVNMHPESSYLYHEIAGYGVILTLVPVLVIGYLKIIEKYRHSSNKSHL
Transpeptidase that recognizes and modifies its substrate by proteolytic cleavage of a sorting signal. Following cleavage, a covalent intermediate is formed via a thioester bond between the archaeosortase and its substrate, which is then transferred and covalently attached to the cell membrane. Belongs to the exosortase/archaeosortase family. Archaeosortase E subfamily.
P77640
MKKVLIAALIAGFSLSATAAETIRFATEASYPPFESIDANNQIVGFDVDLAQALCKEIDATCTFSNQAFDSLIPSLKFRRVEAVMAGMDITPEREKQVLFTTPYYDNSALFVGQQGKYTSVDQLKGKKVGVQNGTTHQKFIMDKHPEITTVPYDSYQNAKLDLQNGRIDGVFGDTAVVTEWLKDNPKLAAVGDKVTDKDYFGTGLGIAVRQGNTELQQKLNTALEKVKKDGTYETIYNKWFQK
Part of the ABC transporter complex ArtPIQMJ involved in arginine transport. The complex is composed of two ATP-binding proteins (ArtP), two transmembrane proteins (ArtM and ArtQ) and two solute-binding proteins (ArtJ and ArtI). Belongs to the bacterial solute-binding protein 3 family.
P45091
MKKTLLTAILLGASVAASAQELTFAMQPSYPPFETTNAKGEIIGFDVDVTNAICQEIQATCKFKSETFDALIPNLKAKRFDAAISAIDITDARAKQVLFSDAYYDSSASYVALKGKATLESAKNIGVQNGTTFQQYTVAETKQYSPKSYASLQNAILDLKSGRIDIIFGDTAVLADMISKEPEIQFIGEKVTNKKYFGNGLGIAMHKSNKDLAAQLNKGLAAIKANGEYQKIYDKWITK
Part of the ABC transporter complex ArtPIQM involved in arginine transport. The complex is composed of two ATP-binding proteins (ArtP), two transmembrane proteins (ArtM and ArtQ) and a solute-binding protein (ArtI). Belongs to the bacterial solute-binding protein 3 family.
Q9JS59
MIKQIGRFFRAFIFIMPLSLTSCESKIDRNRIWIVGTNATYPPFEYVDAQGEVVGFDIDLAKAISEKLGKQLEVREFAFDALILNLKKHRIDAILAGMSITPSRQKEIALLPYYGDEVQELMVVSKRSLETPVLPLTQYSSVAVQTGTFQEHYLLSQPGICVRSFDSTLEVIMEVRYGKSPVAVLEPSVGRVVLKDFPNLVATRLELPPECWVLGCGLGVAKDRPEEIQTIQQAITDLKSEGVIQSLTKKWQLSEVAYE
Probably part of an ABC transporter complex involved in arginine transport. Binds arginine. Interacts with host epithelial cells, suggesting a role in host-cell adhesion during infection. Was identified as a potential vaccine component. In vitro, induces antibodies capable of neutralizing the infectivity of C.pneumoniae. This protein, although well conserved among chlamydial species, shows species-specific immunogenicity. Belongs to the bacterial solute-binding protein 3 family. Truncated N-terminus.
O84385
MCIKRKKTWIAFLAVVCSFCLTGCLKEGGDSNSEKFIVGTNATYPPFEFVDKRGEVVGFDIDLAREISNKLGKTLDVREFSFDALILNLKQHRIDAVITGMSITPSRLKEILMIPYYGEEIKHLVLVFKGENKHPLPLTQYRSVAVQTGTYQEAYLQSLSEVHIRSFDSTLEVLMEVMHGKSPVAVLEPSIAQVVLKDFPALSTATIDLPEDQWVLGYGIGVASDRPALALKIEAAVQEIRKEGVLAELEQKWGLNN
Probably part of an ABC transporter complex involved in arginine transport. Binds arginine (By similarity). Interacts with host epithelial cells, suggesting a role in host-cell adhesion during infection. Does not induce neutralizing antibodies. This protein, although well conserved among chlamydial species, shows species-specific immunogenicity. Belongs to the bacterial solute-binding protein 3 family.
P77547
MKKLVLAALLASFTFGASAAEKINFGVSATYPPFESIGANNEIVGFDIDLAKALCKQMQAECTFTNHAFDSLIPSLKFRKYDAVISGMDITPERSKQVSFTTPYYENSAVVIAKKDTYKTFADLKGKRIGMENGTTHQKYIQDQHPEVKTVSYDSYQNAFIDLKNGRIDGVFGDTAVVNEWLKTNPQLGVATEKVTDPQYFGTGLGIAVRPDNKALLEKLNNALAAIKADGTYQKISDQWFPQ
Part of the ABC transporter complex ArtPIQMJ involved in arginine transport. Binds L-arginine with high affinity. The complex is composed of two ATP-binding proteins (ArtP), two transmembrane proteins (ArtM and ArtQ) and two solute-binding proteins (ArtJ and ArtI). Belongs to the bacterial solute-binding protein 3 family.
P17720
ATEGARNIGQSAPEGKVQMDCPSRHNFDPECEKAFVEHIHLELASSYHAWSMWAFYARDCKAAVGMTRLCEWASHVSAQRARRMAAYVLTRGGHVDYKEIPAPKKQGWDNFEDAFSHCVANKKRILTSLQSLYQCCQSKDAHCSNFIQTDMMDEVIAWNKFLSDCLSNLHCIGSQGMGPWVFDRWLARIVMSKFKHPKIPSLSTSDLESNIPNELFDAEGDMVRAIKKL
Cyst. Artemin is elongation factor-associated and self-associating. Belongs to the ferritin family.
P54537
MIKVEKLSKSFGKHEVLKNISTTIAEGEVVAVIGPSGSGKSTFLRCLNLLEKPNGGTITIKDTEITKPKTNTLKVRENIGMVFQHFHLFPHKTVLENIMYAPVNVKKESKQAAQEKAEDLLRKVGLFEKRNDYPNRLSGGQKQRVAIARALAMNPDIMLFDEPTSALDPEMVKEVLQVMKELVETGMTMVIVTHEMGFAKEVADRVLFMDQGMIVEDGNPKEFFMSPKSKRAQDFLEKIL
Part of a binding-protein-dependent transport system for arginine. Probably responsible for energy coupling to the transport system. Impaired growth on arginine as the nitrogen source. Belongs to the ABC transporter superfamily.
P77311
MFEYLPELMKGLHTSLTLTVASLIVALILALIFTIILTLKTPVLVWLVRGYITLFTGTPLLVQIFLIYYGPGQFPTLQEYPALWHLLSEPWLCALIALSLNSAAYTTQLFYGAIRAIPEGQWQSCSALGMSKKDTLAILLPYAFKRSLSSYSNEVVLVFKSTSLAYTITLMEVMGYSQLLYGRTYDVMVFGAAGIIYLVVNGLLTLMMRLIERKALAFERRN
Part of the ABC transporter complex ArtPIQMJ involved in arginine transport. Probably responsible for the translocation of the substrate across the membrane (By similarity). The complex is composed of two ATP-binding proteins (ArtP), two transmembrane proteins (ArtM and ArtQ) and two solute-binding proteins (ArtJ and ArtI). Belongs to the binding-protein-dependent transport system permease family. HisMQ subfamily.
P45089
MFQEYLSVIVKGIPTSLLLTVVSLLIAFFLALFLTFLLSMENKWIKSAVNLYLTLFTGTPLLVQFFLIYAGPGQFQWIIDSPLWYVLSNAWFCAALALALNSAAYSTQLFHGAVKAIPKGQWESCGALGLNRIQTLKILIPYALKRALPSYSNEIILVFKGTALASTITIMDIMGYARQLYGTEYDALTIYGIAGGIYLIITGIATLLLRKLEKKVLAFERFEVSKA
Part of the ABC transporter complex ArtPIQM involved in arginine transport. Probably responsible for the translocation of the substrate across the membrane (By similarity). The complex is composed of two ATP-binding proteins (ArtP), two transmembrane proteins (ArtM and ArtQ) and a solute-binding protein (ArtI). Belongs to the binding-protein-dependent transport system permease family. HisMQ subfamily.
Q8IMC5
MFWHLLCVPNDENASAPDDGNQSCQPSSKQDQYLSPNRNCQKNLLRLYPPPPSKPPPLVGAILQTRLLHQISPSAIADADADLNAVGELLYPNVLQRSATLPAKHNRLGVRSRVTFKVPSSNLPAQDSYSHQPRNQVAVAAKDGILVDVKAKESVKMTSEDLLQPGHVVKERWKVVRKIGGGGFGEIYEGQDLITREQVALKVESARQPKQVLKMEVAVLKKLQGKEHVCRFIGCGRNDRFNYVVMQLQGKNLAELRRAQPRGAFSLSTTLRLGLQILKAIESIHSVGFLHRDIKPSNFSVGRLPYNCRRVYMLDFGLARQYTTGTGEVRCPRAAAGFRGTVRYASINAHRNREMGRHDDLWSLFYMLVEFVNGQLPWRKIKDKEQVGLTKEKYDHRILLKHLPSDLKQFLEHIQSLTYGDRPDYAMLIGLFERCMKRRGVKESDPYDWEKVDSTAIGNISATGNPSIPIKSDYMHGNITQMTVAASNASGTEYIRKRAEIETAHITATDPLNIKEKVDKNCNATSLAQPAKGSGEPMVQHGNAANNQNITSKGLQQQSTLTNSQVAIANIQSAPSMIEREDVQYTKLEEGAPTKFITMKPNGECDNVDIAAKCIFEQKHVEANDDIVGRASLSGVEQHYKSQIKKHNSPEIANKQIQRTGTVTNDKTSEVNRSTEEQKSTFGRLRVLTAPPMSVHDLPSGGGHSHQVSDLSGKQDPYAATSNAAPIGINSSSTKFGSQHGQIFGLAAMPPINRRSATSTNLRPSSSASQRINSGSTIGGAVGNGSNTARSSVAGDHSVTQFALIDDENVSALQQVTKGGALTLASQWKSQFDDSEDTTDNEWNREHQLQPNLEQLIKLDISLPLNEAKPFPQHGVAGTGKLINPPGEAKGRPKRYTLNITGIENYEALRISIPNCWSEPAMGNVLRKGLEPPAVQQAAFDDTVYRMDIARNVCVRETYSEITHLARPSTSSVLRNRLPSPFKKDSALQLNSTNDSLDKSRHRNSLPNVSVNDIFDDLQMKLNLDLGSAIQENNCCISGRLEIRVIPKDTSHPDDSVYYDAMGAVKNTPTANEGHDHSDQAVNNCDEMEATSAVIAFPNKSISKIMSPPGRDATEERTGASLCSLYSAGVNKLKLNGNTAPRTQFKKGSTDGFGENESEFDFPLLNPSKIPVRQSKCASWAGADFISASKPLESAEVPQEIPYHPQSDTTYSVIDSIPVRKTTYSIALECPPNISDLTPGLSYFYCNIVVPLRLFSILLTES
Probable serine/threonine protein kinase. ATP + L-seryl-[protein] = ADP + H(+) + O-phospho-L-seryl-[protein] ATP + L-threonyl-[protein] = ADP + H(+) + O-phospho-L-threonyl-[protein] Interacts with Mtor. Found in the cytoplasm during interphase. Localizes to the mitotic spindle in dividing cells. Detected in larval brain. Detected at low levels throughout development. Highest expression levels are seen in embryos. Embryonic lethal. Belongs to the protein kinase superfamily. CK1 Ser/Thr protein kinase family.
Q6ZUL6
MLMSWSPEECKGQGEPLDDRHPLCARLVEKPSRGSEEHLKSGPGPIVTRTASGPALAFWQAVLAGDVGCVSRILADSSTGLAPDSVFDTSDPERWRDFRFNIRALRLWSLTYEEELTTPLHVAASRGHTEVLRLLLRRRARPDSAPGGRTALHEACAAGHTACVHVLLVAGADPNIADQDGKRPLHLCRGPGTLECAELLLRFGARVDGRSEEEEETPLHVAARLGHVELADLLLRRGACPDARNAEGWTPLLAACDVRCQSITDAEATTARCLQLCSLLLSAGADADAADQDKQRPLHLACRRGHAAVVELLLSCGVSANTMDYGGHTPLHCALQGPAAALAQSPEHVVRALLNHGAVRVWPGALPKVLERWSTCPRTIEVLMNTYSVVQLPEEAVGLVTPETLQKHQRFYSSLFALVRQPRSLQHLSRCALRSHLEGSLPQALPRLPLPPRLLRYLQLDFEGVLY
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. In the ciliary body, it is detected in the cytoplasm and perinuclear region of the pigmented ciliary epithelial layer. In the retina, it is detected in the nuclei of retinal ganglion cells. Expressed in the eye. The highest expression is observed in the iris, with moderate levels in the trabecular meshwork (TM), the lamina, and the optic nerve; slightly lower levels in the ciliary body, retina, and choroid; and very low levels in the lens. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. The disease is caused by variants affecting the gene represented in this entry. Belongs to the ankyrin SOCS box (ASB) family.
B2RUP6
MLMSWSPEECRDQGEPQGDRYSLCAKLVEKPDRGSEEHLEPGLGPIIIRSASGPTLAFWQAVLVGDVGSVSRILSDSSTGLAPDSIFDTSDPERWRDYRFNIRALRLWSLTYEEELTTPLHVAASRGHTEVLELLLRRRAKPDSAPGGRTALHEACSAGHAACVRVLLVAGADPNTLDQDGKRPLHLCRGPGILECVELLLKFGAQVDGRTEDEEETPLHIAARLGHVELADLLLRWGACPDVRNSEGWTPLLAACDIRCQSPKDAEATTNRCFQLCRLLLSVGADADAANQDKQRPLHLACRHGHSAVVQLLLSCGVNANAMDYGGHTPLHCALLGPTTAVAHSPEHTVRDLLNHGAVRVWPGALPKVLDRWCMSPRTIEVLMNTYRVVQLPEEAKGLVPPEILQKYHGFYSSLFALVRQPRSLQHLCRCALRSHLEGCLPHALPRLPLPPRMLRFLQLDFEDLLY
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q3SZE4
MEDGSVSYGFKNIFITMFATFFFFKLLIKVFLALLTHFYIVKGNRKEAARIAEEIFGEISDCWADRSPLHEAAAQGRLLALKTLIAQGVNVNLVTINRVSSLHEACLGGHVACAKALLENGAHVNGVTVHGATPLFNACCSGSAACVNVLLEFGAKAQLEVHLASPIHEAVKRGNRECMEILLANNVNIDQEVPHLGTPLYAACTYQRLDCVKKLLELGANVNHGQWLDTPLHAAAKQNSVEIIHLLIDYGANLKCKNAQGQSALDLAAPKSSVEQALLLREGPPALSQLCRLCVRKCLGRNCHKTIHKLYLPDPLEKFLLYQ
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q7Z667
MEDGPVFYGFKNIFITMFATFFFFKLLIKVFLALLTHFYIVKGNRKEAARIAEEIYGGISDCWADRSPLHEAAAQGRLLALKTLIAQGVNVNLVTINRVSSLHEACLGGHVACAKALLENGAHVNGVTVHGATPLFNACCSGSAACVNVLLEFGAKAQLEVHLASPIHEAVKRGHRECMEILLANNVNIDHEVPQLGTPLYVACTYQRVDCVKKLLELGASVDHGQWLDTPLHAAARQSNVEVIHLLTDYGANLKRRNAQGKSALDLAAPKSSVEQALLLREGPPALSQLCRLCVRKCLGRACHQAIHKLHLPEPLERFLLYQ
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q9D0V1
MEDAPAFYGFKNIFLTMFATFFFFKLLIKVFLALLTHFYIVKGNRKEAARIAEEIYGGLSDCWADRSPLHEAAAQGRLLALKTLIAQGINVNLVTINRVSSLHEACLGGHVACAKALLENGAHVNAQTVHGATPLFNACCSGSAACVNVLLEFGAKAQLEIYLASPIHEAVKRGHRECMEILLTKDVNIEQEVPQLGTPLYVACTYQRVDCVKKLLELGASVDHGQWLDTPLHAAVRQSSVEVINLLTVYGANLNLRNAQGKSALDLAVPKSSVRQALLLHEGPPALSQLCRLCVRKCLGRTCHHAIYALGLPESLEKFLLYQ
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q5RFS1
MEDGPVFYGFKNIFITMFATFFFFKLLIKVFLALLTHFYIVKGNRKEAARIAEEIYGGISDCWADRSPLHEAAAQGRLLALKTLIAQGVNVNLVTINRVSSLHEACLGGHVACAKALLENGAHVNGVTVHGATPLFNACCSGSAACVNVLLEFGAKAQFEVHLASPIHEAVKRGHRECMEILLANNVNIDHEVPQLGTPLYVACTYQRVDCVKKLLELGASVDHGQWLDTPLHAAARQSNVEVIHLLTDYGANLKRRNAQGKSALDLAAPKSSVEQALLLCEGPPALSQLCRLCVRKCLGRACHQAIHKLHLPEPLERFLLYQ
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q8N8F5
MNLMDITKIFSLLQPDKEEEDTDTEEKQALNQAVYDNDSYTLDQLLRQERYKRFINSRSGWGVPGTPLRLAASYGHLSCLQVLLAHGADVDSLDVKAQTPLFTAVSHGHLDCVRVLLEAGASPGGSIYNNCSPVLTAARDGAVAILQELLDHGAEANVKAKLPVWASNIASCSGPLYLAAVYGHLDCFRLLLLHGADPDYNCTDQGLLARVPRPRTLLEICLHHNCEPEYIQLLIDFGANIYLPSLSLDLTSQDDKGIALLLQARATPRSLLSQVRLVVRRALCQAGQPQAINQLDIPPMLISYLKHQL
Probable substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. Interacts with CUL5 and RNF7. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q9D738
MNLMDIAKIFSLLQPEKEEEDTGTGEKQALNQAVYDNDSCTLDHLLHQERYKRFINSRSGWGIPGTPLRLAASYGHLNCVKVLLEHGADVDSLDVKAQTPLFTAVSHGHLECVRMLLEAGACPSGSIYNNCSPVLTASRDGAFAILQELLGHGAEANVKAKLPVWASNIASCSGPLYLAAVYGHLDCFRLLLLYGADPDYNCTDQGLLSRVPQPRTLLEICLHHNCEPEYIQLLIDFGANIYLPSLPVDPTSQDDKGIKLLLQARATPRSLLSQTRLVIRRSLCRANQSQATDQLDIPPVLISYLKHQ
Probable substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. Interacts with CUL5 and RNF7. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q9H8Z1
MEPRAADGCFLGDVGFWVERTPVHEAAQRGESLQLQQLIESGACVNQVTVDSITPLHAASLQGQARCVQLLLAAGAQVDARNIDGSTPLCDACASGSIECVKLLLSYGAKVNPPLYTASPLHEACMSGSSECVRLLIDVGANLEAHDCHFGTPLHVACAREHLDCVKVLLNAGANVNAAKLHETALHHAAKVKNVDLIEMLIEFGGNIYARDNRGKKPSDYTWSSSAPAKCFEYYEKTPLTLSQLCRVNLRKATGVRGLEKIAKLNIPPRLIDYLSYN
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q8VBX0
MEPRAGDGCFLGDVGFWVERTPVHEAAQRGESLQLQQLIDSGACVNQVTVDSITPLHAASLQGQAQCVQLLLAAGAQVDARNIDGSTPLCDACASGSIECVKLLLSYGAKVNPPLYTASPLHEACMSGSSECVRLLIDVGANLEAHDCHFGTPLHVACAREHLDCVKVLLNAGANVNAAKLHETALHHAAKVKNVDLIEMLIEFGGNIYARDNRGKKPSDYTWSSSAPAKCFEYYEKTPLSLSQLCRVSLRKATGVRGLEKVAKLNIPPRLIDYLSYN
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q92816
MSDANKAAIAAEKEALNLKLPPIVHLPENIGVDTPTQSKLLKYRRSKEQQQKINQLVIDGAKRNLDRTLGKRTPLLPPPDYPQTMTSEMKKKGFNYIYMKQCVESSPLVPIQQEWLDHMLRLIPESLKEGKEREELLESLINEVSSDFENSMKRYLVQSVLVKPPVKSLEDEGGPLPESPVGLDYSNPWHSSYVQARNQIFSNLHIIHPTMKMLLDLGYTTFADTVLLDFTGIRAKGPIDCESLKTDLSIQTRNAEEKIMNTWYPKVINLFTKKEALEGVKPEKLDAFYSCVSTLMSNQLKDLLRRTVEGFVKLFDPKDQQRLPIFKIELTFDDDKMEFYPTFQDLEDNVLSLVERIAEALQNVQTIPSWLSGTSTPVNLDTELPEHVLHWAVDTLKAAVHRNLEGARKHYETYVEKYNWLLDGTAVENIETFQTEDHTFDEYTEFIEKFLSLASEIMLLPQWIHYTMVRLDCEDLKTGLTNKAKAFANILLNDIASKYRKENECICSEFEAIKEHALKVPETTEEMMDLISYVEKARTVGIEELILRIQESKRQMSYFLDVFLFPQEDLALNATVLMWPRKINPIFDENDELIENAKHKKENELMAKREKLILEIEKESRRMEEFTEFAELERMQQYVTDVRQLQKRIQESEEAVQFINKEEELFKWELTKYPELDKLKVNIEPYQKFFNFVLKWQRSEKRWMDGGFLDLNGESMEADVEEFSREIFKTLKFFQTKLKKELQEKRKAARKRSLEEEKIEEEPKDNATITMCRMRARHWKQISEIVGYDLTPDSGTTLRKVLKLNLTPYLEQFEVISAGASKEFSLEKAMNTMIGTWEDIAFHISLYRDTGVCILSSVDEIQAILDDQIIKTQTMRGSPFIKPFEHEIKAWEDRLIRIQETIDEWLKVQAQWLYLEPIFCSEDIMQQMPEEGRQFQTVDRHWRDIMKFCAKDPKVLAATSLTGLLEKLQNCNELLEKIMKGLNAYLEKKRLFFPRFFFLSNDEMLEILSETKDPLRVQPHLKKCFEGIAKLEFLPNLDIKAMYSSEGERVELIALISTSAARGAVEKWLIQVEDLMLRSVHDVIAAARLAYPESARRDWVREWPGQVVLCISQMFWTSETQEVISGGTEGLKKYYKELQNQLNEIVELVRGKLSKQTRTTLGALVTIDVHARDVVMDMIKMGVSHDTDFLWLAQLRYYWENENARVRIINCNVKYAYEYLGNSPRLVITPLTDRCYRTLIGAFYLNLGGAPEGPAGTGKTETTKDLAKALAVQCVVFNCSDGLDYLAMGKFFKGLASSGAWACFDEFNRIELEVLSVVAQQILCIQRAIQQKLVVFVFEGTELKLNPNCFVAITMNPGYAGRSELPDNLKVLFRTVAMMVPNYALIAEISLYSYGFLNARPLSVKIVMTYRLCSEQLSSQFHYDYGMRAVKAVLVAAGNLKLKYPNENEDILLLRSIKDVNEPKFLSHDIPLFNGITSDLFPGIKLPEADYHEFLECAHEACNVHNLQPVKFFLEKIIQTYEMMIVRHGFMLVGEPFAAKTKVLHVLADTLTLMNEHGYGEEEKVIYRTVNPKSITMGQLFGQFDPVSHEWTDGIVANTFREFALSETPDRKWVVFDGPIDTLWIESMNTVLDDNKKLCLMSGEIIQMSPQMSLIFETMDLSQASPATVSRCGMIYLEPSQLGWEPLVSSWLNSLKGPLCEPEYQALLRGLFAWLIPPSLNQRVELFQLNYLYTTIVSKILKILITFRISNYFKYVPLKTQCTFIKFFLHQQACFIFSLIWSIGGSCDTDGRRVFDTFIRLIILGKDDENPVPDSVGKWECPFDEKGLVYDYMYELKNKGRWVHWNELIKNTNLGDKQIKIQDIIVPTMDTIRYTFLMDLSITYAKPLLFVGPTGTGKSVYVKDKLMNHLEKDQYFPFYINLSARTSANQVQNIIMARLDKRRKGVFGPPMGKKCIIFIDDMNMPALEKYGAQPPIELLRQFFDCGHWYDLKDTSKITLVDIELIAAMGPPGGGRNPVTPRCIRHFNICSINSFSDETMVRIFSSIVAFYLRTHEFPPEYFVIGNQIVNGTMEIYKQSVENLLPTPTKSHYTFNLRDFSRVIRGCLLIERDAVANKHTMIRLFVHEVLRVFYDRLINDDDRRWLFQLTKTVIKDHFKESFHSIFSHLRKQNAPVTEEDLRNLMFGDYMNPDLEGDDRVYIEIPNIHHFSDVVDQCLDEYNQTHKTRMNLVIFRYVLEHLSRICRVLKQSGGNALLVGLGGSGRQSLTRLATSMAKMHIFQPEISKSYGMNEWREDMKSFIAVPVTNRIVDNKSKILEKRLRYLNDHFTYNLYCNICRSLFEKDKLLFSFLLCANLLLARKEIEYQELMFLLTGGVSLKSAEKNPDPTWLQDKSWEEICRASEFPAFRGLRQHFCEHIYEWREIYDSKEPHNAKFPAPMDKNLNELQKIIILRCLRPDKITPAITNYVTDKLGKKFVEPPPFDLTKSYLDSNCTIPLIFVLSPGADPMASLLKFANDKSMSGNKFQAISLGQGQGPIAAKMIKAAIEEGTWVCLQNCHLAVSWMPMLEKICEDFTSETCNSSFRLWLTSYPSSKFPVTILQNGVKMTNEPPTGLRLNLLQSYLTDPVSDPEFFKGCRGKELAWEKLLFGVCFFHALVQERKKFGPLGWNIPYGFNESDLRISIRQLQLFINEYDTIPFEAISYLTGECNYGGRVTDDWDRRLLLTMLADFYNLYIVENPHYKFSPSGNYFAPPKGTYEDYIEFIKKLPFTQHPEIFGLHENVDISKDLQQTKTLFESLLLTQGGSKQTGASGSTDQILLEITKDILNKLPSDFDIEMALRKYPVRYEESMNTVLVQEMERFNNLIITIRNTLRDLEKAIKGVVVMDSALEALSGSLLVGKVPEIWAKRSYPSLKPLGSYITDFLARLNFLQDWYNSGKPCVFWLSGFFFTQAFLTGAMQNYARKYTTPIDLLGYEFEVIPSDTSDTSPEDGVYIHGLYLDGARWDRESGLLAEQYPKLLFDLMPIIWIKPTQKSRIIKSDAYVCPLYKTSERKGTLSTTGHSTNFVIAMLLKTDQPTRHWIKRGVALLCQLDD
Force generating protein of respiratory cilia. Produces force towards the minus ends of microtubules. Dynein has ATPase activity; the force-producing power stroke is thought to occur on release of ADP. Involved in sperm motility; implicated in sperm flagellar assembly (By similarity). Consists of at least two heavy chains and a number of intermediate and light chains. Dynein heavy chains probably consist of an N-terminal stem (which binds cargo and interacts with other dynein components), and the head or motor domain. The motor contains six tandemly-linked AAA domains in the head, which form a ring. A stalk-like structure (formed by two of the coiled coil domains) protrudes between AAA 4 and AAA 5 and terminates in a microtubule-binding site. A seventh domain may also contribute to this ring; it is not clear whether the N-terminus or the C-terminus forms this extra domain. There are four well-conserved and two non-conserved ATPase sites, one per AAA domain. Probably only one of these (within AAA 1) actually hydrolyzes ATP, the others may serve a regulatory function (By similarity). Belongs to the dynein heavy chain family. Was originally derived from a readthrough transcript including ASB14 and DNAH12. DNHD2 was thought to be a distinct gene.
Q8VHS7
MSDPNKTAIAAEKEALNLKLPPIVQPPKNIGVDTPKQSELLKYRRSKEQQKKINQLVISGAKKSLDKTLDKRIPPLPEPDFPPTMTSEIKKRGLNYIFMKQCVENSPIVPIQSQWLDNMLMLVPEHLKEGEKSEELLGSLIDEVSMDYEKSMKRYLVQSVLVKPPVKWLEDEGGPLPESPEGLDYSNPWHSNFVQARSQILANLHIVHPTMKMLLELGYTAFAKIILLDLTGIRARGPIDCEALRNDLSIQARKSEEKIMNTWYPKVINLFTKKEALEGIKTEKLDSFYNCVSILMSNQLKDLLWRTVEEFIKLFDPRYLNRLPIFKMELTFDDDKMEFYPTFQDLEDVVLGLIERISETLQTVQTVPSWLSGTSSPVNLDTEIPEHVLQWALCTLRTAIQHNLEGAKAHHKTYVTKYNWLLDGTATKMIQRFQAENHTFDEYTEFIEKFFNLASEIMLLPQWAHYPMVRLDCEDLKIGLTNKARAFANILLNDIASKHRKENESICSEFEAIRDHALRVPETTEEMMELIAFVERARTVGILDLALRIQESKRQMSYFLDALLMSQEDLNLNATVLLWPTKITPVFDENDELIENAKHAKENELIAKREKLILEIEKESRRMEEFTEFAELDRMHQYVADVRQLQKRIQESEEAVQFINKEEELFKWELTKYPELEKLKVTIEPYQKFFNFVLKWQRTEKRWMDGGFLDLNGESMEADIDDFSREVFRTLKFFHAKQKKELQERRKAARKRSLMEEKPEEEPKENPTITMMRARHWKQMSEIVGYDLTPDSGTTLRKVLKLNLSPYLESFEVISAGASKEFSLERSMNAMIATWDDISFHISLYRDTGIGILSSVDEIQAILDDQIIKTQTMRGSPFIKPFENEIKAWEDRLIRIQETIDEWLKVQAQWLYLEPIFCSEDIMQQMPEEGRQFQTVDRHWKDIMKFCAKDPKVLAATSLTGLLEKLQNCNDLLEKIMKGLNAYLEKKRLFFPRFFFLSNDEMLEILSETKDPLRVQPHLKKCFEGIAKLEFLANLDIKAMYSSEGERVELIALISTTAARGAVEKWLIQVEDLMLRSIRDVIAASRLAYPESARKDWVREWPGQVVLCVSQMFWTSETQEIISGGTEGLKKYYKELQYQLNDIVELVRGKLSKQTRITLGALVTIDVHARDVVMDMIEMGVSHDTDFQWLAQLRYYWEYENARVRIINCNVKYAYEYLGNSPRLVITPLTDRCYRTLIGAFYLNLGGAPEGPAGTGKTETTKDLAKALAVQCVVFNCSDGLDYLAMGKFFKGLASSGAWACFDEFNRIELEVLSVVAQQILCIQRAIQQKLEAFVFEGTELRLNPNCFVAITMNPGYAGRSELPDNLKVLFRTVAMMVPNYALIAEISLYSYGFLNAKPLSVKIVMTYRLCSEQLSSQFHYDYGMRAVKAVLVAAGNLKLKYPNENEDILLLRSIKDVNEPKFLSHDIPLFNGITSDLFPGIKLPEADYKEFLECAHETCQTHNLQPVKFFLEKIIQTYEMMIVRHGFMLVGEPFAAKTEVLHVLADTLTLMNERNYGDEEKVMYRTVNPKSITMGQLFGQFDPVSHEWTDGIVANTFREFALAESPDRKWVVFDGPIDTLWIESMNTVLDDNKKLCLMSGEIIQMSPQMSLIFETMDLSQASPATVSRCGMIYLEPSQLGWEPLVASWLNSLKEPLSELEHQNLLKELFDWLVPPSLVFRRKKCKFLSLHDLSKYFKQVLIYYILVVSPKFSLKSNHYKIFFHQQASFIFSLIWSIGASCDTDGRLAFDAFLRTAVSGRNEEAPMPVSISKWECPFDEKGLVYDYMYELRNRGRWIHWNELIKSSDLEDKRAKIQDIIVPTMDTIRYTFLMDLSITSAKPLLFVGPTGTGKSVYVKDKLMNHLEKEKYFPFYVNFSARTSANQVQNIIMARLDKRRKGVFGPPMGKKCVIFIDDMNMPSLEKYGAQPPIELLRQFFDCGHWYDLKDTSKITLIDIELIAAMGPPGGGRNAVTPRFIRHFNICTINTFSDETMVRIFSSIMAFYLRTHAFSPEYFVLGNQIVSGTMEVYKQSMGNLLPTPAKSHYTFNLRDFSRVIRGCLLIEKDAIESKHTMIRLFVHEVLRVFYDRLINDEDRNWLFLLIKNVIKDHFKESFDTVFHHLRNGNAPVTEEDLRNLMFGDYMNPDLEGDDRVYIEIPDIHHFNEVVDQCLDEYNQTHKRRMNLVVFRYVLEHLSRICRILKQSGGNALLIGLGGSGRQSLTKLATSMAKMQIFQPEISKSYGMNEWREDIKGFLLLIIIWAVVESLSKILEKRLRYLNDHFTYNLYCNICRSLFEKDKLLFSFLLCANLLLAKKEIEYQELMFLLTGGVSLKSAEKNPDPDWLQDKSWEEICRASELPVFHGLREHFCNYIYLWEEIYDSKEPHNMKFPEPMDKTLNELQKIIILRCLRPDKITPAITNYVTDKLGKKFVEPPPFDLTKSYLDSNCTIPLVFVLSPGADPMASLLKFANDKSMSGNKFQAISLGQGQGPVASKMITAAIEEGTWVCLQNCHLAVSWMPTLEKICEDFSPETCNPTFRLWLTSYPSPKFPVTILQNGVKMTNEPPTGLRLNLLQSYLSDPISDTQFFKGCPGKELAWEKLLFGVCFFHALVQERKKFGPLGWNIPYGFNESDLRISVRQLQLFINEYDTIPFEAISYLTGECNYGGRVTDDWDRRLLLTMLADFYNSFIIENPHYKFSPSGNYYAPPKGTYDDYIEFIKKLPFTQEPEIFGLHENVDISKDLQQTKVLFESLLLTQGGAKQTGSSGSTDQVLLEITEDILTQLPNDFDIEAALKNYPVRYEESMNTVLVQEMERFNNLIRTIRNTLRDLKKAIKGLVVMDSALEALSGSLLIGKVPEMWAKRSYPSLKPLGSYITDFLARLKFLEDWFSSGKPSVFWISGFFFTQAFLTGAMQNFARKYTIPIDLLGYEFEVIPFDYSDTPPEDGVYIHGLYLDGARWDRFSGLLAEQYPKLLFDLMPIIWIKPNLKIEIVKIEAYICPLYKTSERKGTLSTTGHSTNFVIAMLLKTDQPTQHWIKRGVALLCQLDN
Force generating protein of respiratory cilia. Produces force towards the minus ends of microtubules. Dynein has ATPase activity; the force-producing power stroke is thought to occur on release of ADP. Involved in sperm motility; implicated in sperm flagellar assembly (By similarity). Protein modification; protein ubiquitination. Consists of at least two heavy chains and a number of intermediate and light chains. Dynein heavy chains probably consist of an N-terminal stem (which binds cargo and interacts with other dynein components), and the head or motor domain. The motor contains six tandemly-linked AAA domains in the head, which form a ring. A stalk-like structure (formed by two of the coiled coil domains) protrudes between AAA 4 and AAA 5 and terminates in a microtubule-binding site. A seventh domain may also contribute to this ring; it is not clear whether the N-terminus or the C-terminus forms this extra domain. There are four well-conserved and two non-conserved ATPase sites, one per AAA domain. Probably only one of these (within AAA 1) actually hydrolyzes ATP, the others may serve a regulatory function (By similarity). Belongs to the dynein heavy chain family. Was originally derived from a readthrough transcript including ASB14 and DNAH12.
P0C927
MDQQSSDEDADTDFDTQIIIQQSLLDAYKPELTGRTPEDERSQSFSSEDYKKIVEAIETVKYSSYPRPSKEDALASFAKYHPAFDEANGSGWLPLHKAAVQLNKNILEITLNASKPSAWEQTTRNGETPLFLAVSSSLLENAHFLLLNGCDPNAKNFEGNSPLLTAVLKDSYDMATLLINHGANVNLRCANERTALHEAAKLGRQDMVKLMLSSGANPDARSSYGFTPLALAAQGGHTETMQLLLQKGRADVHSQASDSSSVLLEAVRGGDPDSVSLLLEYGADANIPKSSGHLPIHVAADKGHFLALKVLVPVTDIAAIKRSGISPLHCAAAGAHPQCLDLLIRAGFDVNFMLDQRVRKHYDDQRKSALYFAVSNGDLSSVKLLLSAGALPNQDPVNCLQIALRMGNYELINLLLRHGANVNYFCRVNPLHFPSALQYTLKDEVMLRMLLNYGYDTERCFDCPHGERVHRCCTFEGWTSTVIKDTMFCEVITLSWLQHLSGKVVRVMLDYVDQVQICSKLKAVLEKQKLWPEIHVILTNPRSLQHLCRLKIRKCMGRLRLRCPVFMSFLPLPNLLKAYVLYKEYDLYGQGSSTGT
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q08DG3
MDANDDPDEDHLTSYDVQLSIQESIEAGKTVFYPERFVPLSDQNRKLVEAIQQGHILELQEYVKYKYALDEADEKGWFPLHEAVVQPIQQILEVVLDASYKTLWEFKTSDGETPLTLAVKAGLVENVRTLLEKGVWPNTKNDKGETPLLLAIKRGSYDMVSALLKHNTSLDQPCVKRWSAMHEAAKQGHKDIIALLLNNGGNVHLKDGFGVTPLGVAAEYGHCDVLEHLIHKGGDVLALADDGASVLFEAAGGGNPDCISLLLEYGGSGNIPNRAGHLPIHRAAYEGHYLALKYLIPVTSKHAIQKSGLTPIHSAADGQNAQCLELLIENGFDVNSLLADHISESYDDERKTALYFAVCNNDILCTEILLAAGADPNLDPLNCLLVAVRANNHEIVRLLLAHGANVNCYFMHVNDTRFPSAIQYALNDEVMLRLLLNNGYQVEMCFECMHGDIFGNSFVWSEIEEEVLPGWTSCVIKDNPFCEFITVPWMKHLVGSVIRVLIDYMDYIPLCAKLKSALEVQREWPEIRQILENPCSLKHLCRLKIRRLMGLQRLCQPTLMEKLSLPPTIQRYILFKEYDLYGQELNLP
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q68D37
MDTNDDPDEDHLTSYDIQLSIQESIEASKTALCPERFVPLSAQNRKLVEAIKQGHIPELQEYVKYKYAMDEADEKGWFPLHEAVVQPIQQILEIVLDASYKTLWEFKTCDGETPLTLAVKAGLVENVRTLLEKGVWPNTKNDKGETPLLIAVKKGSYDMVSTLIKHNTSLDQPCVKRWSAMHEAAKQGRKDIVALLLKHGGNVHLRDGFGVTPLGVAAEYGHCDVLEHLIHKGGDVLALADDGASVLFEAAGGGNPDCISLLLEYGGSGNVPNRAGHLPIHRAAYEGHYLALKYLIPVTSKNAIRKSGLTPIHSAADGQNAQCLELLIENGFDVNTLLADHISQSYDDERKTALYFGVSNNDVHCTEVLLAAGADPNLDPLNCLLVAVRANNYEIVRLLLSHGANVNCYFMHVNDTRFPSVIQYALNDEVMLRLLLNNGYQVEMCFDCMHGDIFGNSFVWSEIQEEVLPGWTSCVIKDNPFCEFITVPWMKHLVGRVTRVLIDYMDYVPLCAKLKSALEVQREWPEIRQILENPCSLKHLCRLKIRRLMGLQKLCQPASVEKLPLPPAIQRYILFKEYDLYGQELKLT
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q8CDP8
MDINDDSNDDHLASYDIQLCIQESIEASQAIFHPKRLVQLSDQNRKLVEAIRQGRIFELQEYVQYKYALEEADEKGWFPLHEAVVQPIQQILETVLDASYKTLWEFKTCDGETPLTLAVKAGLVENVKTLLDKGVWPNTKNDKGETPLLIAIKRGSYDMVSALIKYNTSLDQPCVKRWSAMHEAAKQGRKDIITLLLNHRGNVHLRDGFGVTPLGVAAEYGHCDVLEHLIHKGGDVFALADDGASVLFEAAGGGNPDCISLLLKYGGSGNVPNRAGHLPIHRAAYEGHYLALKYLIPVTSKHAIQKSGLTPIHSAAEGQNAQCLELLIENGFDVNALLADHISQSYDDERKTALYFAVSNNDIHCTEVLLAAGADPNLDPLNCLLVAVRANRHEIVRLLLSYGANVNCYFMHVNDTRFPSAIQYALNDEIMLRLLLNNGYQVELCFDCMHGNIFGNSFVWSETEEEGLPGWTSCIIKDNPFCEFITVPWMKHLVGGIVRILIDYMDYVPLCAKLKSVLEVQREWPEIRQIIENPCSLKHLCRLKIRRVMGLQRLCQPASIQMLPLPAAMRRYLLFKEFDLYGQ
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q8WXK0
MARETFPFTSSMLRSLRLQQEWLEWEDRRRAAAQQCRSRRCPSSPRARLTRPHRSCRDPAVHQALFSGNLQQVQALFQDEEAANMIVETVSNQLAWSAEQGFWVLTPKTKQTAPLAIATARGYTDCARHLIRQGAELDARVGGRAALHEACARAQFDCVRLLLTFGAKANVLTEEGTTPLHLCTIPESLQCAKLLLEAGATVNLAAGESQETPLHVAAARGLEQHVALYLEHGADVGLRTSQGETALNTACAGAEGPGSCRRHQAAARRLLEAGADARAAGRKRHTPLHNACANGCGGLAELLLRYGARAEVPNGAGHTPMDCALQAVQDSPNWEPEVLFAALLDYGAQPVRPEMLKHCANFPRALEVLLNAYPCVPSCETWVEAVLPELWKEHEAFYSSALCMVNQPRQLQHLARLAVRARLGSRCRQGATRLPLPPLLRDYLLLRVEGCIQ
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q8BYT0
MAGESFPFTSSTLRALRLQREWLDWEDRRRAAAQQCRRHRDLPCPQAQLLRPRRSCRDPAVHNALFSGDLQQLQILFQDEDAANMIVETVSNQLAWSAEQGFWVLTPKTKQTAPLTIAVARGYTDCARHLILQGAELDARIGGRAALHEACAQAHPDCVRLLLTFGAKANVSSEEGMTPLHLCTSPESLQCAKLLLEAGASVNVASQESEVTPLHVAAARGLEQHVALYLQNGADVALRTSQGETALNAACAGAEGPGSSRQHEAAARQLLEAGADPQAAGRKRHTPLHNACANGCGGLAELLLRHGASPGVTNGAGHTPMDCALQAVQDAPNWEPEVLFAALLDYGAQPVHPEMLKHCANFPRALEVLLNAYPCVPSCDPWVEAVLPELWQEHEAFYSSALSMENQPRQLQHLARLAVRAQLGSHCRQAAAQLPLPPLLRDYLLLGVEGRIQ
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q32KY8
MSKSSKLCCKTSCPRSNIFCSLVDKVFKRPSLQSLHQWGYHCYEPRVYRTLAKILRYVDLEGFDILLSDYIAFVEKSGCHLEVNFNLEFTEICVNTILYWVFARKGNPDFVELLLKKTKDYVQDRSFNLALIWRTFTPVYCPSPLSGITPLLYVAQTRQSNILKILLQYGILERENNPINIVLTILLYPSRVRIMVDHELVDIEEDAKTCLVLCSRVLSTISIREIEMQLSLGRRPIISNWLDYIPSTRYKDPCELLHLCRITIRAQLLTNNMLPNGIFSLLIPVCLQNYLNLES
May be a substrate-recognition component of a SCF-like ECS (Elongin-Cullin-SOCS-box protein) E3 ubiquitin-protein ligase complex which mediates the ubiquitination and subsequent proteasomal degradation of target proteins. Protein modification; protein ubiquitination. The SOCS box domain mediates the interaction with the Elongin BC complex, an adapter module in different E3 ubiquitin-protein ligase complexes. Belongs to the ankyrin SOCS box (ASB) family.
Q9LEU6
MDNLSFHDGNIFNLLHTRSQDPSHEVDQRMQFHSSLVRRLSQEQELEGHQGCVNALAWNSNGSLLISGSDDLRINIWNYSSRKLLHSIDTGHTANIFCTKFVPETSDELVVSGAGDAEVRLFNTSRLSGRAEDDNAIIPSALYQCHTRRVKKLAVEPGNPNVVWSASEDGTLRQHDFRESTSCPPAGTAHQECRSVLLDLRSGAKRALADPPKQTLSLKSCDISATRPHLLLVGGSDAFARLYDRRMLPPLASSRKRMPPPPCVNYFCPMHLSERGRTNLHLTHVTFSPNGEEVLLSYSGEHVYLMNVNNGICSTGIMQYTPGDVDNLFSFSNNLHDVESPPQVSTTPQNGFHRSSNAATVKKCTELVEIAKWSLEEGTDVFYAIEAANEVLDAHSNDIESALRHECLCTRAALLLKRKWKNDAHMAVRDCHNARRIDASSFKAHYYMSEALQQLGKCKEALDFATAAQHMNPSDADIVAKVESIKRDLQAAGAEKNEETGAGTTRVLSLSDILYRSEANSDSSHDMSRSEREDSDYDEELELDIQTSLSDDEGRDTDSNSMRGSLNLRIHRVGDDKPMENTVDNASSGTASSSQNDRTSYQPEGAIDMKRRYVGHCNVGTDIKQASFLGQRGEYIASGSDDGRWFIWEKQTGRLMKVLVGDESVLNCIQCHPFDSVVATSGIDNTIKIWSPTASVPSIVAGGSAGPATANVVEVMESNQQKLSRNRENPLSVELMQRFRMQEFAEGNFHPFECTQS
May function as a substrate adapter for CUL4-DDB1 E3 ubiquitin-protein ligase complex (Probable). Negative regulator of fatty acid biosynthetic process and accumulation (PubMed:28663238). Acts as an abscisic acid (ABA) negative regulator (PubMed:26147561). Involved in responses to salt (NaCl) and osmotic (e.g. in response to mannitol and PEG) stresses (PubMed:26147561). Protein modification; protein ubiquitination. Interacts with DDB1; the subcellular localization of this complex depends on farnesylation status (PubMed:26147561). Binds to HDA9 in the cytosol when farnesylated (PubMed:28663238). Excluded from the nucleus when farnesylated at Cys-754. Farnesylated at Cys-754 by FTB/ERA1; this modification triggers an exclusion from the nucleus. Production of 'obese' seeds characterized by increased weight, oil body density and higher fatty acid contents (PubMed:28663238). Increased sensitivity to abscisic acid (ABA) as well as salt (NaCl) and osmotic (e.g. in response to mannitol and PEG) stresses in term of seed germination and roots elongation (PubMed:26147561).
A6ZQG3
MTTLASSIEHKTKHLAAPFENDENTWMKKYCCQCKSCKMSVPVQPWLPRFFVFGILCPVFWLVNLLAWWFLQYWQPHELEFHDLQEDEYPGFYEYEAITKRTVIPLKEEVLQEIRVMQNFSDSNSEEYYESKDGMPSSFLNVNTEQVEDENDTLKKYRYAFLKKVAHDVLESHDLLRKTFRNWNLRSLLGLLIDSILIIFVVLLCKKSR
Required for receptor inhibition of inappropriately expressed a-factor receptor (STE3) in MAT a cells. Inhibits signaling by relocalizing the G protein beta-gamma (STE4-STE18) subunit to intracellular membranes. May also be a mechanism for the down-regulation of the mating pheromone response after the zygotic fusion event, promoting the transition of the new diploid cell to vegetative growth (By similarity). Induced by alpha-pheromone. Repressed by the ALPHA2-MCM1 repressor (By similarity).
D6VW18
MTTLASSIEHKTKHLAAPFENDENPWMKKYCCQCKSCKMSVPVQPWLPRFFVFGILCPVFWLVNLLAWWFLQYWQPHELEFHDLQEDEYPGFYEYEAITKRTVIPIKEEVLQEIRVMQNFSDSNSEEYYESKDGMPSSFLNVNTEQVEDENDTLKKYRYAFLKKVAHDVLESHDLLRKTFRDWNLRSLLGLLIDSILIIFVVLLCKKSR
Required for receptor inhibition of inappropriately expressed a-factor receptor (STE3) in MAT a cells. Inhibits signaling by relocalizing the G protein beta-gamma (STE4-STE18) subunit to intracellular membranes. May also be a mechanism for the down-regulation of the mating pheromone response after the zygotic fusion event, promoting the transition of the new diploid cell to vegetative growth. Induced by alpha-pheromone. Repressed by the ALPHA2-MCM1 repressor.
Q32LE5
MNPVVVVHGGGASNISKDRKERVRQGILRAATVGYNILKQGGSAVDAVEGAVTVLEDDPDFNAGCGSVLNENGEVEMDASIMNGKDLSAGAVSAVRCIANPIKLARLVMDKTPHCFLTDQGAARFAAANGIPTIPGQQLVTERSRKRLEKEKLEKDAQKPDCQKNLGTVGAVALDCQGNLAYATSTGGIVNKMPGRVGDTPCVGSGGYADNDIGAVSTTGHGESILKVNLARLALFHVEQGKSLEEAANASLGHMKSKVKGVGGIIMVNKAGEWAVKWTSTSMPWAAAKDGKLHSGIDFGDTSIIDLS
Has both L-asparaginase and beta-aspartyl peptidase activity. May be involved in the production of L-aspartate, which can act as an excitatory neurotransmitter in some brain regions. Is highly active with L-Asp beta-methyl ester. Besides, has catalytic activity toward beta-aspartyl dipeptides and their methyl esters, including beta-L-Asp-L-Phe, beta-L-Asp-L-Phe methyl ester (aspartame), beta-L-Asp-L-Ala, beta-L-Asp-L-Leu and beta-L-Asp-L-Lys. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. This heterodimer may then dimerize in turn, giving rise to a heterotetramer. Midpiece of sperm tail. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Belongs to the Ntn-hydrolase family.
Q5BKW9
MLPVVVVHGGAGHIPKERTEESTIGVKEAARTGYAILQRGGSAVDAVVEAVALMETNPRFNAGRGSVLNIKGEVEMDALVMDGRTLDSGAVSAVRRIANPVQLARLVMEKTKHLCLTAEGASKFARSMGVPEVPEESLITDYAKMRWKKNLEPDANPVECQMGKMGTVGAVAVDMDGNIACATSTGGMINKMEGRVGDTPCVGCGGYADNKIGAVSPTGHGEAIMKVTLSRLVLFHMEQGKTPEEASDLALAYMKERVDGLGGVVVVDHNGTWAARFSSLQMSWAAAQQGKLHFGLFHGDHFTEPVEEHT
Has both L-asparaginase and beta-aspartyl peptidase activity. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Abnormal and deformed fish at 6 dpf. Belongs to the Ntn-hydrolase family.
Q9VXT7
MPRPVLLIHGGAGDISDSRIAGKFAGIKQALRSAWGLLSPDNGSGGGSALDAVEAAVRSMELDENFNAGYGSCLNTSGQVELEASLMEGRDLRAGCITLLRDVMHPITVARRLMEKQRHTFLGGAAAQELALATGSERLQPGALVTEGARLTLKEFEDQVAQGKDPFFARTELTDDKPVPKTDPSGETVGAVAMDASGQIVVGTSTGGITGKWPGRIGDTPILGSGTYADNCRGGVSTTGHGETLMRYNLAQRILSAMEYQGLSAQAAADKECREMTKRLGGTGGAIVVGHSGDLGISFTSRRMAWGYVQDGTIFYGIEGQVVHQEPFTLST
Has both L-asparaginase and beta-aspartyl peptidase activity. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Belongs to the Ntn-hydrolase family.
Q29I93
MPRPVLLIHGGAGDIPDSRIAGKFKGIKEALRCAWGSLVPASGAKGGALDAVETAVRSMELDENFNAGYGSCLNTDGQVEMEASLMEGQDLRAGCVTLLRDVMHPITVARRLMEKQRHTFIGGEAAQELALSTGSERLPANALVTEGARFTLQQFKEQLTQGKDPFFARTELAAEQKTDPSGETVGAVAMDHNGQIVVGTSTGGITGKWPGRIGDTPILGSGTYADNARGGVSTTGHGETIMRYNLAQRILAAIEHKGMSAQAAADQECREMTRRIGGTGGAIVVGHAGDLGISFTSQRMAWGYIQDDTIFYGIEGQVVHQEPLS
Has both L-asparaginase and beta-aspartyl peptidase activity. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Belongs to the Ntn-hydrolase family.
Q9H6F7
MNPIVVVHGGGAGPISKDRKERVHQGMVRAATVGYGILREGGSAVDAVEGAVVALEDDPEFNAGCGSVLNTNGEVEMDASIMDGKDLSAGAVSAVQCIANPIKLARLVMEKTPHCFLTDQGAAQFAAAMGVPEIPGEKLVTERNKKRLEKEKHEKGAQKTDCQKNLGTVGAVALDCKGNVAYATSTGGIVNKMVGRVGDSPCLGAGGYADNDIGAVSTTGHGESILKVNLARLTLFHIEQGKTVEEAADLSLGYMKSRVKGLGGLIVVSKTGDWVAKWTSTSMPWAAAKDGKLHFGIDPDDTTITDLP
Has both L-asparaginase and beta-aspartyl peptidase activity. May be involved in the production of L-aspartate, which can act as an excitatory neurotransmitter in some brain regions. Is highly active with L-Asp beta-methyl ester. Besides, has catalytic activity toward beta-aspartyl dipeptides and their methyl esters, including beta-L-Asp-L-Phe, beta-L-Asp-L-Phe methyl ester (aspartame), beta-L-Asp-L-Ala, beta-L-Asp-L-Leu and beta-L-Asp-L-Lys. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Glycine accelerates autocleavage into an alpha and beta chain. Heterodimer of an alpha and beta chain produced by autocleavage. This heterodimer may then dimerize in turn, giving rise to a heterotetramer. Midpiece of sperm tail. Expressed in brain, kidney, testis and tissues of the gastrointestinal tract. Present in sperm (at protein level). Over-expressed in uterine, mammary, prostatic and ovarian carcinoma. By 5-alpha-di-hydrotestosterone and progesterone. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Belongs to the Ntn-hydrolase family. Truncated N-terminus. Contaminating sequence.
Q4R7U8
MNPIVVVHGGGAGPISKDRKERMHQGIVRAATVGYGILREGGSAVDAVEGAVVALEDDPEFNAGCGSVLNTDGEVEMDASIMDGKDLSVGAVSAVRCIANPIKLARLVMEKTPHCFLTDQGAAQFAAAMGVPEIPGEKLVTEKNKKRLEKEKHEKGAQKTDCEKNLGTVGAVALDFKGNVAYATSTGGIVNKMVGRVGDTPCVGAGGYADNDIGAISTTGHGESILKVNLARLTLFHIEQGKTVEEAADLSLGYMKSRVKGLGGLIVVSKTGDWVAKWTSTSMPWAAAKDGKLHFGIDPDDTAITDLP
Has both L-asparaginase and beta-aspartyl peptidase activity. May be involved in the production of L-aspartate, which can act as an excitatory neurotransmitter in some brain regions. Is highly active with L-Asp beta-methyl ester. Besides, has catalytic activity toward beta-aspartyl dipeptides and their methyl esters, including beta-L-Asp-L-Phe, beta-L-Asp-L-Phe methyl ester (aspartame), beta-L-Asp-L-Ala, beta-L-Asp-L-Leu and beta-L-Asp-L-Lys. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. This heterodimer may then dimerize in turn, giving rise to a heterotetramer. Midpiece of sperm tail. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Belongs to the Ntn-hydrolase family.
Q9CVX3
MACARGTVAPPVRASIDVSLVVVVHGGGASNISANRKELVREGIARAATEGYKILKAGGSAVDAVEGAVTVLENDPEFNAGYGSVLNVNGDIEMDASIMDGKDLSAGAVSAVRCIANPVKLARLVMEKTPHCFLTGHGAEKFAEDMGIPQVPVEKLITERTKKHLEKEKLEKGAQNADCPKNSGTVGAVALDCRGNLAYATSTGGIVNKMVGRVGDSPCIGAGGYADNNLGAVSTTGHGESILKVNLARLALFHVEQGKTVEEAAQLALDYMKSKLKGLGGLILVNKTGDWVAKWTSASMPWAAVKNGKLQAGIDLCETRTRDLPC
Has both L-asparaginase and beta-aspartyl peptidase activity. May be involved in the production of L-aspartate, which can act as an excitatory neurotransmitter in some brain regions. Is highly active with L-Asp beta-methyl ester. Besides, has catalytic activity toward beta-aspartyl dipeptides and their methyl esters, including beta-L-Asp-L-Phe, beta-L-Asp-L-Phe methyl ester (aspartame), beta-L-Asp-L-Ala, beta-L-Asp-L-Leu and beta-L-Asp-L-Lys. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. This heterodimer may then dimerize in turn, giving rise to a heterotetramer. Midpiece of sperm tail. In retina localizes in photoreceptor inner segment (PubMed:27106100). High expression in the heart and brain while low to minimal expression in the other tissues. In ocular tissues, high levels is observed in the optic nerve and retina while relatively low levels of expression are detected in the iris-ciliary body, lens or retinal pigment epithelium. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Belongs to the Ntn-hydrolase family.
Q8CG44
MATARPSSCGRDSVPATPRASIDVSLVVVVHGGGASNISPGRKELVSEGIAKAATEGYNILKAGGSAVDAVEGAVTMLENDPEFNAGYGSVLNADGDIEMDASIMDGKDLSAGAVSAVRCIANPVKLARLVMEKTPHCFLTGRGAEKFAADMGIPQTPAEKLITERTKKHLEKEKLEKGAQKADCPKNSGTVGAVALDCKGNLAYATSTGGIVNKMVGRVGDSPCIGAGGYADNNLGAVSTTGHGESILKVNLARLALFHVEQGKTVDEAATLALDYMKSKLKGLGGLILINKTGDWVAKWTSASMPWAAVKNGKLQAGIDLCETKTRNLPTC
Has both L-asparaginase and beta-aspartyl peptidase activity. Is highly active with L-Asp beta-methyl ester. Besides, has catalytic activity toward beta-aspartyl dipeptides and their methyl esters, including beta-L-Asp-L-Phe, beta-L-Asp-L-Phe methyl ester (aspartame), beta-L-Asp-L-Ala, beta-L-Asp-L-Leu and beta-L-Asp-L-Lys. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine (By similarity). May be involved in the production of L-aspartate, which can act as an excitatory neurotransmitter in some brain regions. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. This heterodimer may then dimerize in turn, giving rise to a heterotetramer (By similarity). Midpiece of sperm tail. Present in testis, brain, liver, kidney, heart and skeletal muscle. In brain, specifically present in the astrocytic lineage. Present in sperm (at protein level). Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. In vasectomized rats, autoantibodies against Asrgl1 are present. Belongs to the Ntn-hydrolase family.
Q6GM78
MKPVIVVHGGAGKIVEELDATYRAGVKRAVLKGYDVLSQGGSALTAVEEAVIVLEDEQIFNAGHGSVLNEKGDIEMDAIIMDGKNLDSGAVSAIRNIANPIKLARLVMEKTDHMLLTCEGATLFAKAQGIPEVPNESLVTERSRKRWMKNLKENSNPVADQIGLGTVGAVAIDCEGNVACATSTGGLTNKMVGRVGDTACIGSGGYADNNVGAVSTTGHGESIMKVILARLILHHMEQGKSPEEAADAGLNYMKSRVGGIGGVIIVNSSGDWTAKFSTNQMSWAAVKDDQLHIGIYHGENNVTPLEKAL
Has both L-asparaginase and beta-aspartyl peptidase activity. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine. H2O + L-asparagine = L-aspartate + NH4(+) Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. Heterodimer of an alpha and beta chain produced by autocleavage. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity. Belongs to the Ntn-hydrolase family.
I3L1X1
MTKEYQDLQHLDNEESDHHQLRKGPPPPQPLLQRLCSGPRLLLLSLGLSLLLLVVVCVIGSQNSQLQEELRGLRETFSNFTASTEAQVKGLSTQGGNVGRKMKSLESQLEKQQKDLSEDHSSLLLHVKQFVSDLRSLSCQMAALQGNGSERTCCPVNWVEHERSCYWFSRSGKAWADADNYCRLEDAHLVVVTSWEEQKFVQHHIGPVNTWMGLHDQNGPWKWVDGTDYETGFKNWRPEQPDDWYGHGLGGGEDCAHFTDDGRWNDDVCQRPYRWVCETELDKASQEPPLL
Mediates the endocytosis of plasma glycoproteins to which the terminal sialic acid residue on their complex carbohydrate moieties has been removed. The receptor recognizes terminal galactose and N-acetylgalactosamine units. After ligand binding to the receptor, the resulting complex is internalized and transported to a sorting organelle, where receptor and ligand are disassociated. The receptor then returns to the cell membrane surface. Interacts with LASS2. (Microbial infection) Interacts with hepatitis E virus capsid protein ORF2. Expressed exclusively in hepatic parenchymal cells. Phosphorylated on a cytoplasmic Ser residue. Calcium is required for ligand binding. Hepatic asialoglycoprotein receptor subunit 1
Q91Y84
MTKDYQDFQHLDNDNDHHQLRRGPPPTPRLLQRLCSGSRLLLLSSSLSILLLVVVCVITSQNSQLREDLLALRQNFSNLTVSTEDQVKALSTQGSSVGRKMKLVESKLEKQQKDLTEDHSSLLLHVKQLVSDVRSLSCQMAAFRGNGSERTCCPINWVEYEGSCYWFSSSVRPWTEADKYCQLENAHLVVVTSRDEQNFLQRHMGPLNTWIGLTDQNGPWKWVDGTDYETGFQNWRPEQPDNWYGHGLGGGEDCAHFTTDGRWNDDVCRRPYRWVCETKLDKAN
Mediates the endocytosis of plasma glycoproteins to which the terminal sialic acid residue on their complex carbohydrate moieties has been removed. The receptor recognizes terminal galactose and N-acetylgalactosamine units. After ligand binding to the receptor, the resulting complex is internalized and transported to a sorting organelle, where receptor and ligand are disassociated. The receptor then returns to the cell membrane surface. Interacts with LASS2. Expressed exclusively in hepatic parenchymal cells. Phosphorylated on a cytoplasmic Ser residue. Calcium is required for ligand binding. Hepatic asialoglycoprotein receptor subunit 1
Q5RBQ8
MTKECQDLQHLDNEESDHHQLRKGPPPSQPLLQRLCSGPRLLLLSLGLSLLLLVVVCVIGSQNSQLQKELRGLRETFSNFTASTEAQVKGLSTQGGNVGRKMKSLESQLEKQQKDLSEDHSSLLLHVKQFVSDLRSLSCQMAALQGNGSERACCPVNWVEHERSCYWFSRSGKAWADADNYCRLEDAHLVVVTSWEEQKFVQHHTGPVNTWMGLHDQNGPWKWVDGTDYETGFKNWRPEQPDDWYGHGLGGGEDCAHFTDDGRWNDDVCQRPYRWVCETELDKASQEPPLL
Mediates the endocytosis of plasma glycoproteins to which the terminal sialic acid residue on their complex carbohydrate moieties has been removed. The receptor recognizes terminal galactose and N-acetylgalactosamine units. After ligand binding to the receptor, the resulting complex is internalized and transported to a sorting organelle, where receptor and ligand are disassociated. The receptor then returns to the cell membrane surface (By similarity). Interacts with LASS2. Phosphorylated on a cytoplasmic Ser residue. Calcium is required for ligand binding.
P02706
MTKDYQDFQHLDNENDHHQLQRGPPPAPRLLQRLCSGFRLFLLSLGLSILLLVVVCVITSQNSQLREDLRVLRQNFSNFTVSTEDQVKALTTQGERVGRKMKLVESQLEKHQEDLREDHSRLLLHVKQLVSDVRSLSCQMAALRGNGSERICCPINWVEYEGSCYWFSSSVKPWTEADKYCQLENAHLVVVTSWEEQRFVQQHMGPLNTWIGLTDQNGPWKWVDGTDYETGFKNWRPGQPDDWYGHGLGGGEDCAHFTTDGHWNDDVCRRPYRWVCETELGKAN
Mediates the endocytosis of plasma glycoproteins to which the terminal sialic acid residue on their complex carbohydrate moieties has been removed. The receptor recognizes terminal galactose and N-acetylgalactosamine units. After ligand binding to the receptor, the resulting complex is internalized and transported to a sorting organelle, where receptor and ligand are disassociated. The receptor then returns to the cell membrane surface. Interacts with LASS2. Expressed exclusively in hepatic parenchymal cells. Phosphorylated on a cytoplasmic Ser residue. Calcium is required for ligand binding. Two types of rat hepatic lectin have been identified, RHL-1 and RHL-2/3, having a relative abundance of 4:1. Hepatic asialoglycoprotein receptor subunit 1
Q03969
MAKDFQDIQQLSSEENDHPFHQGEGPGTRRLNPRRGNPFLKGPPPAQPLAQRLCSMVCFSLLALSFNILLLVVICVTGSQSEGHGGAQLQAELRSLKEAFSNFSSSTLTEVQAISTHGGSVGDKITSLGAKLEKQQQDLKADHDALLFHLKHFPVDLRFVACQMELLHSNGSQRTCCPVNWVEHQGSCYWFSHSGKAWAEAEKYCQLENAHLVVINSWEEQKFIVQHTNPFNTWIGLTDSDGSWKWVDGTDYRHNYKNWAVTQPDNWHGHELGGSEDCVEVQPDGRWNDDFCLQVYRWVCEKRRNATGEVA
Mediates the endocytosis of plasma glycoproteins to which the terminal sialic acid residue on their complex carbohydrate moieties has been removed. The receptor recognizes terminal galactose and N-acetylgalactosamine units. After ligand binding to the receptor, the resulting complex is internalized and transported to a sorting organelle, where receptor and ligand are disassociated. The receptor then returns to the cell membrane surface. The functioning ligand-binding unit of this receptor is thought to be at least a dimer. Interacts with LASS2. (Microbial infection) Interacts with hepatitis E virus capsid protein ORF2. Expressed exclusively in hepatic parenchymal cells. Calcium is required for ligand binding. Hepatic asialoglycoprotein receptor subunit 2
P24721
MEKDCQDIQQLDSEENDHQLSGDDEHGSHVQDPRIENPHWKGQPLSRPFPQRLCSTFRLSLLALAFNILLLVVICVVSSQSIQLQEEFRTLKETFSNFSSSTLMEFGALDTLGGSTNAILTSWLAQLEEKQQQLKADHSTLLFHLKHFPMDLRTLTCQLAYFQSNGTECCPVNWVEFGGSCYWFSRDGLTWAEADQYCQLENAHLLVINSREEQDFVVKHRSQFHIWIGLTDRDGSWKWVDGTDYRSNYRNWAFTQPDNWQGHEQGGGEDCAEILSDGHWNDNFCQQVNRWVCEKRRNITH
Mediates the endocytosis of plasma glycoproteins to which the terminal sialic acid residue on their complex carbohydrate moieties has been removed. The receptor recognizes terminal galactose and N-acetylgalactosamine units. After ligand binding to the receptor, the resulting complex is internalized and transported to a sorting organelle, where receptor and ligand are disassociated. The receptor then returns to the cell membrane surface. Interacts with LASS2. Expressed exclusively in hepatic parenchymal cells. Calcium is required for ligand binding. Hepatic asialoglycoprotein receptor subunit 2
Q5M8C9
MEKDFQDIQQLDSEENDHQLIGDEEQGSHVQNLRTENPRWGGQPPSRPFPQRLCSKFRLSLLALAFNILLLVVICVVSSQSMQLQKEFWTLKETLSNFSTTTLMEFKALDSHGGSRNDNLTSWETILEKKQKDIKADHSTLLFHLKHFPLDLRTLTCQLAFFLSNGTECCPVNWVEFGGSCYWFSRDGLTWAEADQYCQMENAHLLVINSREEQEFVVKHRGAFHIWIGLTDKDGSWKWVDGTEYRSNFKNWAFTQPDNWQGHEEGGSEDCAEILSDGLWNDNFCQQVNRWACERKRDITY
Mediates the endocytosis of plasma glycoproteins to which the terminal sialic acid residue on their complex carbohydrate moieties has been removed. The receptor recognizes terminal galactose and N-acetylgalactosamine units. After ligand binding to the receptor, the resulting complex is internalized and transported to a sorting organelle, where receptor and ligand are disassociated. The receptor then returns to the cell membrane surface. Interacts with LASS2. Expressed exclusively in hepatic parenchymal cells. Calcium is required for ligand binding. Two types of rat hepatic lectin have been identified, RHL-1 and RHL-2/3, having a relative abundance of 4:1. RHL-2 and RHL-3 only differs in their carbohydrate structures. Hepatic asialoglycoprotein receptor subunit 2/3
Q54WW4
MNKKSVLVIHGGAGVISKSTISKEREEIFLNSLKNILLAGKIILKQGGTSLDVVQEAVRLLEEDPIYNAGKGSVFTELGTNEMDAAIMDGTNLKAGAVGGVSIIRNPIIAARAVMEHTNHCLLVGKGAEEFAKSKNLEIVEPSFFFTQNRYDQLLRAKDEKKLILDHDGENLLEKEKEKEKNNETSTTTTTISVGVDPIDPKYKMGTVGAVCLDSFGNLAAATSTGGMTNKMHGRVGDTPIIGAGVYANKNVAVSSTGTGEAFMRTVAAFDIAAMMEYGSLSLKDASNKVVMEKLITVGDGGVICVDKYGNVEMPFNTEGMYRGYVIIDNNCENDQNDIINVSIYK
Has both L-asparaginase and beta-aspartyl peptidase activity. Does not have aspartylglucosaminidase activity and is inactive toward GlcNAc-L-Asn. Likewise, has no activity toward glutamine (By similarity). Cleavage of a beta-linked Asp residue from the N-terminus of a polypeptide. H2O + L-asparagine = L-aspartate + NH4(+) Heterodimer of an alpha and beta chain produced by autocleavage. Cleaved into an alpha and beta chain by autocatalysis; this activates the enzyme. The N-terminal residue of the beta subunit is responsible for the nucleophile hydrolase activity (By similarity). Belongs to the Ntn-hydrolases family.
Q09788
MRTTFATVALAFLSTVGALPYAPNHRHHRRDDDGVLTVYETILETVYVTAVPGANSSSSYTSYSTGLASVTESSDDGASTALPTTSTESVVVTTSAPAASSSATSYPATFVSTPLYTMDNVTAPVWSNTSVPVSTPETSATSSSEFFTSYPATSSESSSSYPASSTEVASSYSASSTEVTSSYPASSEVATSTSSYVAPVSSSVASSSEISAGSATSYVPTSSSSIALSSVVASASVSAANKGVSTPAVSSAAASSSAVVSSVVSSATSVAASSTISSATSSSASASPTSSSVSGKRGLAWIPGTDLGYSDNFVNKGINWYYNWGSYSSGLSSSFEYVLNQHDANSLSSASSVFTGGATVIGFNEPDLSAAGNPIDAATAASYYLQYLTPLRESGAIGYLGSPAISNVGEDWLSEFMSACSDCKIDFIACHWYGIDFSNLQDYINSLANYGLPIWLTEFACTNWDDSNLPSLDEVKTLMTSALGFLDGHGSVERYSWFAPATELGAGVGNNNALISSSGGLSEVGEIYIS
Covalently attached to the cell wall.
P83147
TEFATNDGGQR
Degrades acharan sulfate and, to a lesser extent, heparin and heparan sulfate. Inhibited by Cu(2+) ion, nitrogen and lead. Activated by reducing agents, such as DL-dithiothreitol and 2-mercaptoethanol. Optimum pH is 7.2. Optimum temperature 45 degrees Celsius. Monomer. The N-terminus is blocked.
A0A2U8U2L2
MAAPSLESNWLVQIPNQSGSHVAQARKDSFAEHMSYNKTHIEAGRMVLAGPLVEALPQDGQPPVITGSIMVWKATAGEREMLDKWLSDNPFATSGVWDLTKMECTPFLCGVRKGL
Part of the gene cluster that mediates the biosynthesis of xenovulene A, an unusual meroterpenoid that has potent inhibitory effects on the human gamma-aminobutyrate A (GABAA) benzodiazepine receptor (PubMed:29773797). The first step of xenovulene A biosynthesis is the biosynthesis of 3-methylorcinaldehyde performed by the non-reducing polyketide synthase aspks1 (PubMed:17912413, PubMed:29773797, PubMed:20552126). The salicylate hydroxylase asL1 then catalyzes the oxidative dearomatization of 3-methylorcinaldehyde to yield a dearomatized hydroxycyclohexadione (PubMed:29773797). The 2-oxoglutarate-dependent dioxygenase asL3 further catalyzes the oxidative ring expansion to provide the first tropolone metabolite (PubMed:29773797). The cytochrome P450 monooxygenase asR2 allows the synthesis of tropolone hemiacetal (PubMed:29773797). In parallel, a previously unrecognised class of terpene cyclase, asR6, produces alpha-humulene from farnesylpyrophosphate (FPP) (PubMed:29773797). The putative Diels-Alderase asR5 probably catalyzes the formation of the tropolone-humulene skeleton by linking humulene and the polyketide moiety (PubMed:29773797). Oxidative-ring contractions catalyzed by asL4 and asL6 then processively remove carbon atoms from the polyketide to yield xenovulene A (PubMed:29773797). Expression is significantly up-regulated under xenovulene A producing condition. Does not affect the production of xenovulene A. Xenovulene A is a natural product exhibiting little structural resemblance with classical benzodiazepines yet is able to displace high-affinity ligand binding to the benzodiazepine site of the gamma-aminobutyrate A (GABAA) receptor and could be potentially used as an anti-depressant with reduced addictive properties.
A0A2U8U2L3
MGSLTDNAAIPTVDISAFLDPNASQEARQDVVNAMSNACHVYGFFNLAGHGIPQETLREAFELNKMFFALPEESKKEVLISKSIGQSFRGYEPPGIQTHHKGLLPDIKETFMVGREVPLDDPDCGTFSTGPNLWPSSLPKEKFQDRIMAYQGSMLELVKNILAILAQGLPKEWGCSPTVFNSLLDKPSIPMRFLHYAPVPSQLEDVRQFGVADHTDFGCVSILLQEPGTSGLEVYYPPSDSWIPVPVIDDGFVINMGDMMQRYTGGYYRSARHRVLTNREKHRHSVAFFLNGNLGLKAKALDGSETETVVGDWIRGRLIDTMGQTGKLLQRESPKPVVLP
2-oxoglutarate-dependent dioxygenase; part of the gene cluster that mediates the biosynthesis of xenovulene A, an unusual meroterpenoid that has potent inhibitory effects on the human gamma-aminobutyrate A (GABAA) benzodiazepine receptor (PubMed:29773797). The first step of xenovulene A biosynthesis is the biosynthesis of 3-methylorcinaldehyde performed by the non-reducing polyketide synthase aspks1 (PubMed:17912413, PubMed:29773797, PubMed:20552126). The salicylate hydroxylase asL1 then catalyzes the oxidative dearomatization of 3-methylorcinaldehyde to yield a dearomatized hydroxycyclohexadione (PubMed:29773797). The 2-oxoglutarate-dependent dioxygenase asL3 further catalyzes the oxidative ring expansion to provide the first tropolone metabolite (PubMed:29773797). The cytochrome P450 monooxygenase asR2 allows the synthesis of tropolone hemiacetal (PubMed:29773797). In parallel, a previously unrecognised class of terpene cyclase, asR6, produces alpha-humulene from farnesylpyrophosphate (FPP) (PubMed:29773797). The putative Diels-Alderase asR5 probably catalyzes the formation of the tropolone-humulene skeleton by linking humulene and the polyketide moiety (PubMed:29773797). Oxidative-ring contractions catalyzed by asL4 and asL6 then processively remove carbon atoms from the polyketide to yield xenovulene A (PubMed:29773797). Binds 1 Fe(2+) ion per subunit. Secondary metabolite biosynthesis; terpenoid biosynthesis. Expression is significantly up-regulated under xenovulene A producing condition. Xenovulene A is a natural product exhibiting little structural resemblance with classical benzodiazepines yet is able to displace high-affinity ligand binding to the benzodiazepine site of the gamma-aminobutyrate A (GABAA) receptor and could be potentially used as an anti-depressant with reduced addictive properties. Belongs to the iron/ascorbate-dependent oxidoreductase family.
A0A2U8U2L4
MPQLKVLINGGGIAGNAIAFWLTKLGHDVTVLERFPALRTTGLQLDLRGHGIEVLKRMGLDDAMKAKVIKEDGAQFVDTNGKVVAYFPAVDTSKGGVQAFTSEYEIMRGDICRVFYAATKDRATYKFGTSVESFEDLGDSIKVQLTDHTVDHYDLLIGADGVTSSIRKMMLGPGVPDKFIQFQNLYASYFTIPAPIKPDEKYMANIFIAPGSKLLMTRRDNPERLQVYMGGKAPGARLENARRGDTAEEKLGIEEFMQGCGWRTSEMIDELRKADDFYLERLGMVKLDSWHRGRVALVGEAAWCSSVLTGMGTTSCLVGAYCLAGEIAKHCGRGDQGEAKDDPMMVQKNLANALAGYEEKFMPFMHQVQDGLSAKTGTRTYMPSSQWGVTILNWVIKIIALLRLNMAGDWVIREAVRNWKLPDYPELLKE
Flavin-dependent monooxygenase; part of the gene cluster that mediates the biosynthesis of xenovulene A, an unusual meroterpenoid that has potent inhibitory effects on the human gamma-aminobutyrate A (GABAA) benzodiazepine receptor (PubMed:29773797). The first step of xenovulene A biosynthesis is the biosynthesis of 3-methylorcinaldehyde performed by the non-reducing polyketide synthase aspks1 (PubMed:17912413, PubMed:29773797, PubMed:20552126). The salicylate hydroxylase asL1 then catalyzes the oxidative dearomatization of 3-methylorcinaldehyde to yield a dearomatized hydroxycyclohexadione (PubMed:29773797). The 2-oxoglutarate-dependent dioxygenase asL3 further catalyzes the oxidative ring expansion to provide the first tropolone metabolite (PubMed:29773797). The cytochrome P450 monooxygenase asR2 allows the synthesis of tropolone hemiacetal (PubMed:29773797). In parallel, a previously unrecognised class of terpene cyclase, asR6, produces alpha-humulene from farnesylpyrophosphate (FPP) (PubMed:29773797). The putative Diels-Alderase asR5 probably catalyzes the formation of the tropolone-humulene skeleton by linking humulene and the polyketide moiety (PubMed:29773797). Oxidative-ring contractions catalyzed by asL4 and asL6 then processively remove carbon atoms from the polyketide to yield xenovulene A (PubMed:29773797). Binds 1 FAD per subunit. Secondary metabolite biosynthesis; terpenoid biosynthesis. Expression is significantly up-regulated under xenovulene A producing condition. Severely reduces, but does not abolish xenovulene A biosynthesis. Xenovulene A is a natural product exhibiting little structural resemblance with classical benzodiazepines yet is able to displace high-affinity ligand binding to the benzodiazepine site of the gamma-aminobutyrate A (GABAA) receptor and could be potentially used as an anti-depressant with reduced addictive properties. Belongs to the aromatic-ring hydroxylase family.
A0A2U8U2K8
MSAIQRLTGKTAVITGGATGIGFAAAKRFIEEGAFVFIFGRRQEKLDAATAALGPNSRAVQGSVTELADLDRLYEAVKAERGSLDIVMANAGAGMATPLGKITGEQCDIVFGTNLKGTIFTIQGALPLMAQAGGGSIILTGSSSGTTGAPPLSVYGASKAAIRNLARSWAGTLRDEGIRINVLSPASIATEIAKEALGEQGMKMFAQQNPLKRMGQPEEVGAVAAFLASSDSSFMTASEVSVDGGLAQI
Oxidoreductase; part of the gene cluster that mediates the biosynthesis of xenovulene A, an unusual meroterpenoid that has potent inhibitory effects on the human gamma-aminobutyrate A (GABAA) benzodiazepine receptor (PubMed:29773797). The first step of xenovulene A biosynthesis is the biosynthesis of 3-methylorcinaldehyde performed by the non-reducing polyketide synthase aspks1 (PubMed:17912413, PubMed:29773797, PubMed:20552126). The salicylate hydroxylase asL1 then catalyzes the oxidative dearomatization of 3-methylorcinaldehyde to yield a dearomatized hydroxycyclohexadione (PubMed:29773797). The 2-oxoglutarate-dependent dioxygenase asL3 further catalyzes the oxidative ring expansion to provide the first tropolone metabolite (PubMed:29773797). The cytochrome P450 monooxygenase asR2 allows the synthesis of tropolone hemiacetal (PubMed:29773797). In parallel, a previously unrecognised class of terpene cyclase, asR6, produces alpha-humulene from farnesylpyrophosphate (FPP) (PubMed:29773797). The putative Diels-Alderase asR5 probably catalyzes the formation of the tropolone-humulene skeleton by linking humulene and the polyketide moiety (PubMed:29773797). Oxidative-ring contractions catalyzed by asL4 and asL6 then processively remove carbon atoms from the polyketide to yield xenovulene A (PubMed:29773797). Expression is significantly up-regulated under xenovulene A producing condition. Does not affect the production of xenovulene A. Xenovulene A is a natural product exhibiting little structural resemblance with classical benzodiazepines yet is able to displace high-affinity ligand binding to the benzodiazepine site of the gamma-aminobutyrate A (GABAA) receptor and could be potentially used as an anti-depressant with reduced addictive properties. Belongs to the short-chain dehydrogenases/reductases (SDR) family.
A0A2U8U2L0
MTVKILVSGAGVAGTALVNFLCRSKHEYDITVVERAPALRAAGSQLDLKSFGAPLMRKLGLIEKVREKSIHETAFTFVDSKGREWARFPVNEAGKGYEGITSEFEIMRADLVAVLYEASKEVSANPFMKGPQKLRYVFGKHGVHFTQGNSKVNVVFSDGSSDDYDLVVGADGQYSMTRRLLWEPEKGSGDTTLKYTGVTAGFFQMPKSEDEADSTLFKNCLQAGPRGLCLRCAHKDFTQAMLGIPTTDEHKQVFKKPLEQQKQMWEESVGSFKWQGQRVLAELRKSDDFYMTPVAQVKVDRWSKGRVVLVGDAGYCPSVMTGRGTTVSLVGAYVLAGELAKHGDNIDAALESYEKVLRPFITTAQEIPSMGMGMFQSKFGVGVFYVLLAIISKLKIDRLLQALMKEEKETWELPEYPELEFEA
FAD-dependent monooxygenase; part of the gene cluster that mediates the biosynthesis of xenovulene A, an unusual meroterpenoid that has potent inhibitory effects on the human gamma-aminobutyrate A (GABAA) benzodiazepine receptor (PubMed:29773797). The first step of xenovulene A biosynthesis is the biosynthesis of 3-methylorcinaldehyde performed by the non-reducing polyketide synthase aspks1 (PubMed:17912413, PubMed:29773797, PubMed:20552126). The salicylate hydroxylase asL1 then catalyzes the oxidative dearomatization of 3-methylorcinaldehyde to yield a dearomatized hydroxycyclohexadione (PubMed:29773797). The 2-oxoglutarate-dependent dioxygenase asL3 further catalyzes the oxidative ring expansion to provide the first tropolone metabolite (PubMed:29773797). The cytochrome P450 monooxygenase asR2 allows the synthesis of tropolone hemiacetal (PubMed:29773797). In parallel, a previously unrecognised class of terpene cyclase, asR6, produces alpha-humulene from farnesylpyrophosphate (FPP) (PubMed:29773797). The putative Diels-Alderase asR5 probably catalyzes the formation of the tropolone-humulene skeleton by linking humulene and the polyketide moiety (PubMed:29773797). Oxidative-ring contractions catalyzed by asL4 and asL6 then processively remove carbon atoms from the polyketide to yield xenovulene A (PubMed:29773797). Binds 1 FAD per subunit. Secondary metabolite biosynthesis; terpenoid biosynthesis. Expression is significantly up-regulated under xenovulene A producing condition. Severely reduces, but does not abolish xenovulene A biosynthesis. Xenovulene A is a natural product exhibiting little structural resemblance with classical benzodiazepines yet is able to displace high-affinity ligand binding to the benzodiazepine site of the gamma-aminobutyrate A (GABAA) receptor and could be potentially used as an anti-depressant with reduced addictive properties. Belongs to the aromatic-ring hydroxylase family.
A0A2U8U2K9
MFDTTKLQSSTQDGSTSSVTGEPIFGANDPNSELNPSSSHFNVRAWASNYAKVTLEGGSQFRRMGVCFQNLNAFGFITPADYQKDVANIWLALPGMLIRNRKRVNILHQFDGIIRPGEMCVVLGPPSSGCSTFLKTLSGDRDGFFIGEDSYFNYEGISDKELHTAHRGDAIYTAETDVHFPKLTVSQTLEFAAQARCPREIPQGIPRQQFCKQLKDVVMGMYGISHTADTKVGNDYIRGVSGGERKRVTIAEATLSNAPLQCWDNCTRGLDSANAIGFCKTLRLQSEFFGQSCAVSMYQAPQSAYDLFDKATVLYQGHQIYFGPADEAKAYFERLGFECPSRQTTPDFLTSMTFPEERITRAGFNPPRTPEEFAAAWRSSPEYKALQTDISEYKTKHPIDGPNAGVYRELKKSYQARGQRIKSPYTLTYMQQVQMCMRRAWNRLVSDPGPTIVVTMGNFVLALIMSSLFFNMQPDTDSFYGREVVLFMAVMFNAFASVLEVMTLYAQRPIVEKQARYAFYHPSAEAYSSVLMDLPIKVLACVSFNLVFYFMTNLNRTPGNFFFYLLASFFIVLSMSGIFRFIKIPSAAFSRTVQQAMIPASILMVFLITFAGFMVPINYMLPWCRWINYLNPVAYGFESLMINEYAGREFRCSNYIPFDGTPGDPNVACNVVGAVAGETFVSGDAHISEAYSYDAAHKWRNIGIVIAMTIFNYTMCFITSEYVSAKKSKGEILVFRRGFVPKNTHVNKITDDLEARSLPVTKIVESPEGSKEKVGGELQSGSTSIFHWRNVCYDIKIKGKPRRILDNVDGWVKPGTMTALMGVSGAGKTTLLDCLADRRTGIGIITGEMLVDGKIRDESFQRKTGYAQQQDLHLETATVRESLVFSALLRRPHHIPKAEKLAYVEEVIDLLEMGPYADAVVGVLGEGLNVEQRKRLTIAVELAAKPPLLLFVDEPTSGLDSQTSWAVVNLLEKLSKAGQSILCTLHQPSAMLFQRFDRLLLLADGGKTVYFGDIGENSSTLVEYFERKAKHPCPPNANPAEWMLEAIGAAPGTTSEVDWQHVWRTSPEFDRVQEELSRLREHGSQSNSHDSEKSETKAVTYHGEFAVPLWTQFVVVIERVFQQSWRTPAYIYSRFALCGVVSLFIGLVFLNSPLSVRGLQNQMFAVFQLFAIVGQLVSQQMPQFIIQRSLYEVRERPAKTYSWKVFMVSQILSDIPYYALASVMMWALWYFPIGLYKNAEVAGQETERGALMWLLFLAWLMWVSTFGHFCISFSETAEAGANAANFMYVLVNFFCGALITPNQMPRFWIFLYRASPLSYLVSSMLSAGIANVEVTCAANEYTIIDPPMGQTCYEYLRNEINTIGGYLLDNNATENCKFCKLKYSNVFLSEIEIEYGTRWRNFGIIWVYVIFNISAAITLYWVARMPKGHRKV
ABC transporter; part of the gene cluster that mediates the biosynthesis of xenovulene A, an unusual meroterpenoid that has potent inhibitory effects on the human gamma-aminobutyrate A (GABAA) benzodiazepine receptor. Expression is significantly up-regulated under xenovulene A producing condition. Xenovulene A is a natural product exhibiting little structural resemblance with classical benzodiazepines yet is able to displace high-affinity ligand binding to the benzodiazepine site of the gamma-aminobutyrate A (GABAA) receptor and could be potentially used as an anti-depressant with reduced addictive properties. Belongs to the ABC transporter superfamily. ABCG family. PDR (TC 3.A.1.205) subfamily.
Q2M8A6
MEFSFSPKRLVVAVAAALPLMASAADTPSTATARKGFAGYDHPNQYLVKPATTIADNMMPVMQHPAQDKETQQKLAELEKKTGKKPNVVVFLLDDVGWMDVGFNGGGVAVGNPTPDIDAVASQGLILTSAYSQPSSSPTRATILTGQYSIHHGILMPPMYGQPGGLQGLTTLPQLLHDQGYVTQAIGKWHMGENKESQPQNVGFDDFRGFNSVSDMYTEWRDVHVNPEVALSPDRSEYIKQLPFSKDDVHAVRGGEQQAIADITPKYMEDLDQRWMDYGVKFLDKMAKSDKPFFLYYGTRGCHFDNYPNAKYAGSSPARTSYGDCMVEMNDVFANLYKTLEKNGQLDNTLIVFTSDNGPEAEVPPHGRTPFRGAKGSTWEGGVRVPTFVYWKGMIQPRKSDGIVDLADLFPTALDLAGHPGAKVANLVPKTTFIDGVDQTSFFLGTNGQSNRKAEHYFLNGKLAAVRMDEFKYHVLIQQPYAYTQSGYQGGFTGTVMQTAGSSVFNLYTDPQESDSIGVRHIPMGVPLQTEMHAYMEILKKYPPRAQIKSD
No E.coli strains have been observed to have an arylsulfatase activity. A 'latent' activity has been observed by heterologous expression of a genomic region linked to tynA, but it does not map near aslA. Binds 1 Ca(2+) ion per subunit. The conversion to 3-oxoalanine (also known as C-formylglycine, FGly), of a serine or cysteine residue in prokaryotes and of a cysteine residue in eukaryotes, is critical for catalytic activity. Belongs to the sulfatase family.
Q2M8A5
MLQQVPTRAFHVMAKPSGSDCNLNCDYCFYLEKQSLYREKPVTHMDDDTLEAYVRHYIAASEPQNEVAFTWQGGEPTLLGLAFYRRAVALQAKYGAGRKISNSFQTNGVLLDDEWCAFLAEHHFLVGLSLDGPPEIHNQYRVTKGGRPTHKLVMRALTLLQKHHVDYNVLVCVNRTSAQQPLQVYDFLCDAGVEFIQFIPVVERLADETTARDGLKLHAPGDIQGELTEWSVRPEEFGEFLVAIFDHWIKRDVGKIFVMNIEWAFANFVGAPGAVCHHQPTCGRSVIVEHNGDVYACDHYVYPQYRLGNMHQQTIAEMIDSPQQQAFGEDKFKQLPAQCRSCNVLKACWGGCPKHRFMLDASGKPGLNYLCAGYQRYFRHLPPYLKAMADLLAHGRPASDIMHAHLLVVSK
Binds 3 [4Fe-4S] clusters (By similarity). The first cluster is coordinated with 3 cysteines and an exchangeable S-adenosyl-L-methionine (By similarity). Belongs to the radical SAM superfamily. Anaerobic sulfatase-maturating enzyme family. Despite its homology to the anaerobic sulfatase-maturating enzymes, it is not involved in Cys-type sulfatase maturation in vivo.
H8L902
MMNSIENEEFIPILLGSDMNVYGMARSFNEAYGKICQAYASDQLAPTRYSKIVNVEVIPGFDKDPVFIETMLRLAKERYSDKSKKYLLIACGDGYAELISQHKQELSEYFICPYIDYSLFERLINKVSFYEVCEEYDLPYPKTLIVREEMLVNGHLEQELPFEFPVALKPANSVEYLSVQFEGRKKAFILETREEFDLILGRIYEAGYKSEMIVQDFIPGDDSNMRVLNAYVDEDHQVRMMCLGHPLLEDPTPASIGNYVVIMPDYNEKIYQTIKAFLEKIEYTGFANFDMKYDPRDGEYKLFEINLRQGRSSFFVTLNGLNLARFVTEDRVFNKPFVETTYGTNQSDKARLWMGVPKKIFLEYARENEDKKLAEQMIKENRYGTTVFYEKDRSIKRWLLMKYMFHNYIPRFKKYFHVKEG
Catalyzes the addition of D-aspartate onto the lysine residue in the peptidoglycan precursor UDP-MurNAc-pentapeptide. The ligation occurs between the beta-carboxylate of D-Asp and the epsilon-amino group of L-Lys. Is highly specific for D-aspartate, as L-aspartate, D-glutamate, D-alanine, D-iso-asparagine and D-malate are not substrates. [beta-GlcNAc-(1->4)-Mur2Ac(oyl-L-Ala-gamma-D-Glu-L-Lys-D-Ala-D-Ala)](n) + n ATP + n D-aspartate = [beta-GlcNAc-(1->4)-Mur2Ac(oyl-L-Ala-gamma-D-Glu-6-N-(beta-D-Asp)-L-Lys-D-Ala-D-Ala)]n + n ADP + n H(+) + n phosphate Binds 2 magnesium ions per subunit. Cell wall biogenesis; peptidoglycan biosynthesis. The substrate D-aspartate is provided by the coexpressed aspartate racemase, whose gene is adjacent to that of the D-aspartate ligase.
Q10916
MRIIYLISTVLLIYTNATVLRTKESIQNKVTYDKYGFQPLCISCTGLISVASFFLKFDVSEPVILEFATIVCKLFAKQPWAVCDGISSQFRDEFFYVFRRLANESPSQICGIILPDCADPTDPSESGWMVALPPKPKRTRISKKKVQKKPNMSMSQNLNVLQLTDLHVDFEYKYPSEANCDDPVCCRVSVSEPKKAAGYWGSVGKCDIPFWTVENMLSHINKTHMIDMVIMTGDYINHVDWEYSIEEHLSVLRKLHRLVQNTFPSTPIYWALGNHEGVPVNSFAPHSVDERFWPTWLYKEFQTMSGPWLSEGAKDSLLKRGSYSTQVMDGLKLITLNTGFCEVTNFFLYLNQSDPDSSMSWFVKELFESEKKGEQVYVLAHIPPGDSECLEGWAFNYYRVIQRFSSTIAAQFFGHDHLDYFTVFYEDMHNVSSKPISVGYASPSVTTFEYQNPAYRIYEIDPYNKFKIVDFTTYYADLEKATEDKKPVWEKLYSARQAHGMDDLSPLSWNKVIQKLFTSEKKREKFYQYAFRNFSPQCDSTCQMQLMCNLRMGHHNSTLYCPTF
Sphingomyelin phosphodiesterase (sphingomyelinase) that converts sphingomyelin to ceramide (N-acyl-sphingoid base) and phosphocholine at acidic pH. Displays its enzymatic activity when secreted. May play distinct roles in signaling. a sphingomyelin + H2O = an N-acylsphing-4-enine + H(+) + phosphocholine H2O + N-acyl-15-methylhexadecasphing-4-enine-1-phosphocholine = H(+) + N-acyl-15-methylhexadecasphing-4-enine + phosphocholine Binds 2 Zn(2+) per subunit. Lipid metabolism; sphingolipid metabolism. Preferentially expressed in embryos, lower expression in later development. There are two types of sphingomyelinases: asm (acid), and nsm (neutral). Only acid sphingomyelinases have been found in worms. Does not require zinc ions as a cofactor. Belongs to the acid sphingomyelinase family.
Q23498
MQQPLIILGIGIVLALVSNVESGVLRKPVDEHEYEKWTNARGNEAAVPPPKYKMLRYAKKAINEPENRKMSCLFCTFAVDGVQALIAQNSTDNEIAAFLVNLCDLFDVEQPHVCKNIIYAFKDEVVFVLERSVFTPEEICGAFIANCGHSDKPLTHMWNITIPGGKPPIKPWPKIPDNKPTFKVLHLSDIHIDHQYVVGTEAYCQLDSALGTYAMCCRDYSQDSQGAPTNLKDKPIYVPAGPWGMPYLCDLPYQTFESAMKHISKTFKDLDYIIITGDFEAHDSWDYTEDLTRENMNNMTNVFLEYFPGVPVYVSIGNHEGVPQDAMAPHTMPEYDTRGPQWLYKIMSEMWSHWIPQEALDTVQYRASYAVYPKPGLKLISLNTIYCSEFNFYLYVNEVDPDATLEWLIEELQDSENKGELVHIISHIPPGDNYCLKGWSWNFFEIVKRYENTIAQMFYGHTHYDQFMVYYDMDDPNRRPFHFNWISPSLTTYDWLNPAYRIYEIDGGYEGATYTVKDAKTYFANVTEANMKNKEPEWVLSYDTREHYQMADFSPQSWSDLSDKLWTNTTLFRDYVRLYYRNHYNNECYTDYKCRYTFVCDIKKGRSYDESFCDHLTK
Sphingomyelin phosphodiesterase (sphingomyelinase) that converts sphingomyelin (N-acyl-sphingoid-1-phosphocholine) to ceramide (N-acyl-sphingoid base) and phosphocholine at acidic pH. Displays its enzymatic activity when secreted. May play distinct roles in signaling. a sphingomyelin + H2O = an N-acylsphing-4-enine + H(+) + phosphocholine H2O + N-acyl-15-methylhexadecasphing-4-enine-1-phosphocholine = H(+) + N-acyl-15-methylhexadecasphing-4-enine + phosphocholine Binds 2 Zn(2+) per subunit. Lipid metabolism; sphingolipid metabolism. Only the secreted form is enzymatically active. Preferentially expressed in postembryonic development. Requires Zn(2+) to be fully active. There are two types of sphingomyelinases: asm (acid), and nsm (neutral). Only acid sphingomyelinases have been found in worms. Belongs to the acid sphingomyelinase family.
Q3ZC91
MARLGALVCCLLAAWHCRPGLGLPLAPAGTGPAVGQFWHVTDFHLDPTYHITGDHTKVCASSKGAEASDPGPFGDVMCDSPYRLIFSALDFIKNSGQKVSFMIWTGDSPPHVPVLELSTDKVINVTANITTTIQRLFPNLQVFPALGNHDYWPQDQLPVVNSKVYNAVANLWKPWLTEDAITTLRKGGFYTQKVSNNPKLRIISLNTNLYYGPNSVTLNQTDPANQFEWLENTLNISQQNKEKVYIIAHVPVGYLPYARGISAMRKYHNEKLIDIFRKYSDIIAGQFYGHTHRDSIMVLSDKKGKPVNSLFVAPAVTPVRSVLERLTNNPGVRLFQYDPRDYKLLDMLQYYLNLTDANLKGESNWKLEYNLTQAYDIQDLQPKSLYKLAKQFAIQESKQFIKYYKYFFVSYDSSVICQGKCKIFQICAIMNLDVISYTDCFRQYHMKHRL
Has in vitro nucleotide phosphodiesterase activity with nucleoside triphosphates, such as ATP. Has in vitro activity with p-nitrophenyl-TMP. Has lower activity with nucleoside diphosphates, and no activity with nucleoside monophosphates. Has in vitro activity with CDP-choline, giving rise to CMP and phosphocholine. Has in vitro activity with CDP-ethanolamine. Does not have sphingomyelin phosphodiesterase activity. Binds 2 Zn(2+) per subunit. Monomer. N-glycosylated. Belongs to the acid sphingomyelinase family.
Q8WV13
MALVRALVCCLLTAWHCRSGLGLPVAPAGGRNPPPAIGQFWHVTDLHLDPTYHITDDHTKVCASSKGANASNPGPFGDVLCDSPYQLILSAFDFIKNSGQEASFMIWTGDSPPHVPVPELSTDTVINVITNMTTTIQSLFPNLQVFPALGNHDYWPQDQLPVVTSKVYNAVANLWKPWLDEEAISTLRKGGFYSQKVTTNPNLRIISLNTNLYYGPNIMTLNKTDPANQFEWLESTLNNSQQNKEKVYIIAHVPVGYLPSSQNITAMREYYNEKLIDIFQKYSDVIAGQFYGHTHRDSIMVLSDKKGSPVNSLFVAPAVTPVKSVLEKQTNNPGIRLFQYDPRDYKLLDMLQYYLNLTEANLKGESIWKLEYILTQTYDIEDLQPESLYGLAKQFTILDSKQFIKYYNYFFVSYDSSVTCDKTCKAFQICAIMNLDNISYADCLKQLYIKHNY
Has in vitro nucleotide phosphodiesterase activity with nucleoside triphosphates, such as ATP (PubMed:25288789, PubMed:26783088). Has in vitro activity with p-nitrophenyl-TMP (PubMed:25288789). Has lower activity with nucleoside diphosphates, and no activity with nucleoside monophosphates (PubMed:25288789, PubMed:26783088). Has in vitro activity with CDP-choline, giving rise to CMP and phosphocholine. Has in vitro activity with CDP-ethanolamine (PubMed:26783088). Does not have sphingomyelin phosphodiesterase activity (PubMed:25288789, PubMed:26783088). Binds 2 Zn(2+) per subunit. Requires micromolar levels of Zn(2+) for activity (PubMed:26783088). Inhibited by millimolar levels of Zn(2+) (PubMed:25288789, PubMed:26783088). Optimum pH is 4-6. Monomer. Detected in blood serum. Detected in macrophages (at protein level). Up-regulated in macrophages in response to cholesterol accumulation. Up-regulated by cAMP. N-glycosylated. Belongs to the acid sphingomyelinase family.
Q3U8C2
MALLGNFLCCLLVAWLCGPGLGVPLAPADRAPAVGQFWHVTDLHLDPTYHITDDRTKVCASSKGANASNPGPFGDVLCDSPYQLILSAFDFIKNSGQEASFMIWTGDSPPHVPVPELSTGTVIKVITNMTMTVQNLFPNLQVFPALGNHDYWPQDQLPIVTSKVYSAVADLWKPWLGEEAISTLKKGGFYSQKVASNPGLRIISLNTNLYYGPNIMTLNKTDPANQFEWLENTLNSSLWNKEKVYIIAHVPVGYLPYATDTPAIRQYYNEKLLDIFRRYSSVIAGQFYGHTHRDSLMVLSDKNGNPLNSVFVAPAVTPVKGVLQKETNNPGVRLFQYKPGDYTLLDMVQYYLNLTEANLKGESNWTLEYVLTQAYSVADLQPKSLYALVQQFATKDSKQFLKYYHYYFVSYDSSATCDQHCKTLQVCAIMNLDSMSYDDCLKQHL
Has in vitro nucleotide phosphodiesterase activity with nucleoside triphosphates, such as ATP (PubMed:26792860). Has in vitro activity with p-nitrophenyl-TMP. Has lower activity with nucleoside diphosphates, and no activity with nucleoside monophosphates. Has in vitro activity with CDP-choline, giving rise to CMP and phosphocholine. Has in vitro activity with CDP-ethanolamine. Does not have sphingomyelin phosphodiesterase activity (By similarity). Binds 2 Zn(2+) per subunit. Requires micromolar levels of Zn(2+) for activity. Inhibited by millimolar levels of Zn(2+). Detected in blood serum (at protein level). N-glycosylated. Belongs to the acid sphingomyelinase family.
Q641Z7
MALPGNFLCCLLVAWLCDPGLGVPLAPAYGAPAVGQFWHVTDLHLDPTYHITDDHTKVCASSKGANVSNPGPFGDVLCDSPYQLILSAFDFIKNSGQEASFMIWTGDSPPHVPVRELSTGSVIEVITNMTVTVQNLFPNLQVFPALGNHDYWPQDQLPIATSKVYSAVSDLWKPWLDEEAISTLRKGGFYSQKVASNPDLRIISLNTNLYYGPNIMTLNKTDPANQFEWLENTLNSSLRNKEKVYVIAHVPVGYLPYATKTPAMRQYYNEKLVDIFRRYSSVIAGQFYGHTHRDSLMVLSDKNGNPINSVFVAPAVTPVKGVLEKETNNPGVRLFQYKPGDYTLLDMLQYYLNLTEANLKGESNWTLEYTLTQAYGVADLQPKSLHGLAQQLATIDSKQFLKYYHYFFVSYDSSAPCDQRCKTLQICAIMNLDLVSYEDCLKRHL
Has in vitro nucleotide phosphodiesterase activity with nucleoside triphosphates, such as ATP. Has in vitro activity with p-nitrophenyl-TMP. Has lower activity with nucleoside diphosphates, and no activity with nucleoside monophosphates. Has in vitro activity with CDP-choline, giving rise to CMP and phosphocholine. Has in vitro activity with CDP-ethanolamine. Does not have sphingomyelin phosphodiesterase activity. Binds 2 Zn(2+) per subunit. Monomer. N-glycosylated. Belongs to the acid sphingomyelinase family.
Q96CB7
MRLLAWLIFLANWGGARAEPGKFWHIADLHLDPDYKVSKDPFQVCPSAGSQPVPDAGPWGDYLCDSPWALINSSIYAMKEIEPEPDFILWTGDDTPHVPDEKLGEAAVLEIVERLTKLIREVFPDTKVYAALGNHDFHPKNQFPAGSNNIYNQIAELWKPWLSNESIALFKKGAFYCEKLPGPSGAGRIVVLNTNLYYTSNALTADMADPGQQFQWLEDVLTDASKAGDMVYIVGHVPPGFFEKTQNKAWFREGFNEKYLKVVRKHHRVIAGQFFGHHHTDSFRMLYDDAGVPISAMFITPGVTPWKTTLPGVVNGANNPAIRVFEYDRATLSLKDMVTYFMNLSQANAQGTPRWELEYQLTEAYGVPDASAHSMHTVLDRIAGDQSTLQRYYVYNSVSYSAGVCDEACSMQHVCAMRQVDIDAYTTCLYASGTTPVPQLPLLLMALLGLCTLVL
Lipid-modulating phosphodiesterase (PubMed:26095358). Active on the surface of macrophages and dendritic cells and strongly influences macrophage lipid composition and membrane fluidity. Acts as a negative regulator of Toll-like receptor signaling (By similarity). Has in vitro phosphodiesterase activity, but the physiological substrate is unknown (PubMed:26095358). Lacks activity with phosphocholine-containing lipids, but can cleave CDP-choline, and can release phosphate from ATP and ADP (in vitro) (By similarity). Binds 2 Zn(2+) ions per subunit. Interacts with TLR4, TLR7, TLR8 and TLR9. N-glycosylated. Belongs to the acid sphingomyelinase family.
P58242
MTLLGWLIFLAPWGVAGAQLGRFWHISDLHLDPNYTVSKDPLQVCPSAGSQPVLNAGPWGDYLCDSPWALINSSLYAMKEIEPKPDFILWTGDDTPHVPNESLGEAAVLAIVERLTNLIKEVFPDTKVYAALGNHDFHPKNQFPAQSNRIYNQVAELWRPWLSNESYALFKRGAFYSEKLPGPSRAGRVVVLNTNLYYSNNEQTAGMADPGEQFRWLGDVLSNASRDGEMVYVIGHVPPGFFEKTQNKAWFRESFNEEYLKVIQKHHRVIAGQFFGHHHTDSFRMFYDNTGAPINVMFLTPGVTPWKTTLPGVVDGANNPGIRIFEYDRATLNLKDLVTYFLNLRQANVQETPRWEQEYRLTEAYQVPDASVSSMHTALTRIASEPHILQRYYVYNSVSYNHLTCEDSCRIEHVCAIQHVAFNTYATCLHGLGAKLVPGFLLILTLLPSLHVLEVL
Lipid-modulating phosphodiesterase. Active on the surface of macrophages and dendritic cells and strongly influences macrophage lipid composition and membrane fluidity (PubMed:26095358). Acts as a negative regulator of Toll-like receptor signaling (PubMed:26095358, PubMed:27687724). Has in vitro phosphodiesterase activity, but the physiological substrate is unknown (PubMed:26095358, PubMed:27687724). Lacks activity with phosphocholine-containing lipids, but can cleave CDP-choline, and can release phosphate from ATP and ADP (in vitro) (PubMed:27687724). Binds 2 Zn(2+) ions per subunit. Interacts with TLR4, TLR7, TLR8 and TLR9. Macrophages and dendritic cells. Strongly up-regulated by TLR stimuli and interferon gamma. N-glycosylated. Mice display higher inflammatory responses in models of TLR-dependent peritonitis. Macrophages show enhanced responsiveness to TLR stimulation and a significant change in membrane fluidity and the global cellular lipid composition. Belongs to the acid sphingomyelinase family.
Q9UAY4
MLLGLLVLSLAFQGTLAVTECEECKSIVDLLQFEWGEKKTEECVMEIAVFICETFHIEDNDVCNFIISDFSDEFMYVIKQILVTPHQLCGLLMKNDCGDFVDPLATIWNMTIPGNQPPFVPKQVVPPGNPTLRALHLTDLHVDMFYTVGLEADCGTPQCCRPQDMNVEIVENGDVKQPAGPWGSVGSCDTPYWLLTNMLQNIASTAGKLDYIMVSGDLVSHTVWAYTPETHSFMVKNLSDTIRSYFPKTPVYFAVGNHEGVPVDNIAPHFTPKKYHMDWLYKAMSNAWQGWIPADQEKSLEYNGCYMKKIYDGLRMISLNNVYGDRINFWLYINQTDPDGTLQWLINQLQDAENVGDKVHIVAHIPGSDGEALEGYALNYYKIINRYANTVVGQFFGHTHSEKFYMMYANPDDYKSTPTNVVYSAPSVTPYSDYFPAYRIYTIDGVHKGSTYQVIDYEEWFFNLTSNNANPTNVKWEVLYQSANMEYGLKGQIPTEYNQMIERMKTDDSLFNKYYENHNRRSIYDGRAPCNDQQCRNGYLCDARQFHQTQQLCTDLEGGIQKPEPKKNKYSARFATSNERRRGKEECKI
Converts sphingomyelin to ceramide. a sphingomyelin + H2O = an N-acylsphing-4-enine + H(+) + phosphocholine Binds 2 Zn(2+) per subunit. Lipid metabolism; sphingolipid metabolism. There are two types of sphingomyelinases: asm (acid), and nsm (neutral). Only acid sphingomyelinase has been found in worms. Belongs to the acid sphingomyelinase family.
Q9HTD7
MSPVASSRIEKDLLGTLEVPADAYYGIQTLRAVNNFRLSGVPLSHYPKLVVALAMVKQAAADANRQLGHLPEDKHAAISEACARLIRGDFHEQFVVDMIQGGAGTSTNMNANEVIANIALEAMGHTKGEYKYLHPNNDVNMAQSTNDAYPTAIRLGLLLGHDTLLASLDSLIQAFAAKGVEFAGVLKMGRTQLQDAVPMTLGQEFHAFATTLGEDLDRLRRLAPELLTEVNLGGTAIGTGINADPGYQKLAVERLAAISGQPLKPAADLIEATSDMGAFVLFSGMLKRTAVKLSKICNDLRLLSSGPRTGINEINLPPRQPGSSIMPGKVNPVIPEAVNQVAFEVIGNDLALTLAAEGGQLQLNVMEPLIAYKIFDSIRLLQRAMDMLREHCITGITANVERCHELVEHSIGLVTALNPYIGYENSTRIAKTALESGRGVLELVREEKLLDEATLADILLPENMIAPRLIPLRA
L-aspartate = fumarate + NH4(+) Homotetramer. Belongs to the class-II fumarase/aspartase family. Aspartase subfamily.
P07346
MISVMSSAASFRTEKDLLGVLEVPAQAYYGIQTLRAVNNFRLSGVPISHYPKLVVGLAMVKQAAADANRELGQLSERKHAAISEACARLIRGDFHEEFVVDMIQGGAGTSTNMNANEVIANIALEAMGHQKGEYQYLHPNNDVNMAQSTNDAYPTAIRLGLLLGHDALLASLDSLIQAFAAKGAEFSHVLKMGRTQLQDAVPMTLGQEFRAFATTLGEDLARLKTLAPELLTEVNLGGTAIGTGINADPRYQALAVQRLATISGQPLVPAADLIEATSDMGAFVLFSGMLKRTAVKLSKICNDLRLLSSGPRTGINEINLPARQPGSSIMPGKVNPVIPEAVNQVAFQVIGNDLALTMAAEGGQLQLNVMEPLIAFKIFDSIRLLQRAMDMLREHCIVGITANEARCRELVEHSIGLVTALNPYIGYENATRIARIALESGRGVLELVREEGLLDDAMLDDILRPENMIAPRLVPLKA
L-aspartate = fumarate + NH4(+) Homotetramer. Belongs to the class-II fumarase/aspartase family. Aspartase subfamily.
P33109
MSNNIRIEEDLLGTREVPADAYYGVHTLRAIENFYISNSKISDVPEFVRGMVMVKKAAAMANKELKTIPRKIADVIIQACDEVLDKGKCMDQFPVDVFQGGAGTSLNMNTNEVLANIGLELMGHQKGEYQYLNPNDHLNKCQSTNDAYPTGFRIAVYASNQKLIDAINQLREGFDRKAKEFETILKMGRTQLQDAVPMTLGQEFHAFSVLLNEETRNLHRTATLLLEVNLGATAIGTALNTPEGYQPLAVQKLAEVSGLPVVPAEDLIEATSDCGAYVMVHSALKRLAVKLSKICNDLRLLSSGPRAGLNEINLPELQAGSSIMPAKVNPVVPEVVNQVCFKVIGNDTCVTMAAEAGQLQLNVMEPVIGQAMFESIHILTNACYNLLEKCINGITANKEVCEHYVFNSIGIVTYLNPFIGHHNGDIVGKICAETGKSVREVVLERGLLTEAELDDIFSVENLMHPAYKAKRYTDENEQ
L-aspartate = fumarate + NH4(+) Homotetramer. Belongs to the class-II fumarase/aspartase family. Aspartase subfamily.
P78140
MSNNIRIEEDLLGTREVPADAYYGVHTLRAIENFYISNNKISDIPEFVRGMVMVKKAAAMANKELQTIPKSVANAIIAACDEVLNNGKCMDQFPVDVYQGGAGTSVNMNTNEVLANIGLELMGHQKGEYQYLNPNDHVNKCQSTNDAYPTGFRIAVYSSLIKLVDAINQLREGFERKAVEFQDILKMGRTQLQDAVPMTLGQEFRAFSILLKEEVKNIQRTAELLLEVNLGATAIGTGLNTPKEYSPLAVKKLAEVTGFPCVPAEDLIEATSDCGAYVMVHGALKRLAVKMSKICNDLRLLSSGPRAGLNEINLPELQAGSSIMPAKVNPVVPEVVNQVCFKVIGNDTTVTMAAEAGQLQLNVMEPVIGQAMFESVHILTNACYNLLEKCINGITANKEVCEGYVYNSIGIVTYLNPFIGHHNGDIVGKICAETGKSVREVVLERGLLTEAELDDIFSVQNLMHPAYKAKRYTDESEQ
L-aspartate = fumarate + NH4(+) Homotetramer. Belongs to the class-II fumarase/aspartase family. Aspartase subfamily.
Q3AV13
MAASDVLVVAGTHGNELNAPWLLEQWNRQPDLINSAGLSIQRLVGNPQAKAAMRRYVDRDLNRSFRVDLLEQSGGDLEMRRARELLGRYGPRGDEPCSVVLDLHSTTAAMGCSLVLYGRRPADLALAALVQSALGLPIYLHESDSAQTGFLVERWPCGLVVEVGPVPQGVLEARIVRQTRLAIEACFEALASVRSGVVRLPRQVVVHRHLGSCDVPRGESDQPQALVHQRLQGRDWVPFKPLDAIFEAADGSTVETPQMEHQSIPVFINEAAYAEKHIAFSLTRREVWTMEPQWLDHLSELLS
H2O + N-acyl-L-aspartate = a carboxylate + L-aspartate Binds 1 zinc ion per subunit. Belongs to the AspA/AstE family. Aspartoacylase subfamily.