|
ENSTNIP00000011202 (Tetraodon nigroviridis 76_8)
(show help)
For a sequence (see Protein sequence) in target, dcGO predictor has the following procedures to predict the ontology terms of the target:
First, obtain Domain architecture and its residual domains and supra-domains from the SUPERFAMILY database.
Then, use the domain-centric annotations to predict the ontology terms of the target:
- If a target contained a domain/supra-domain, then all ontology terms associated to that domain/supra-domain are transferred to the target (together with hypergeometric score, h-score);
- When a target-to-term transfer is supported by one or more residential domains/supra-domains, sum up h-scores to calculate predictive score (p-score);
- The p-score is then rescaled to the range of 0-1. For each namespace (e.g., three sub-ontologies for GO), p-score=(SUM-MIN)/(MAX-MIN), where SUM is the sum of all h-scores to support a term transferred to the target, MIN and MAX are respectively the minimum and maximum of SUM over a whole list of predicted terms for the target;
Finally, the predictive score being rescaled is used to rank the predictions. The higher value of the p-score indicates the more evident the prediction is. In the dcGO, each ontology has a slim version on its own, containing ontological terms at four levels of increasing granularity (that is, being highly general, general, specific, and highly specific). Listed in the table are the top 5 predictions for each specificity and for each namespace. In addition to those restricted by the term specificity, i.e., Export prediction (slim version), the full list of predictions are also provided for the download, i.e., Export prediction (full version).
Protein sequence
Comment |
pep:novel chromosome:TETRAODON8:13:6993318:7036444:1 gene:ENSTNIG00000008369 transcript:ENSTNIT00000011384 gene_biotype:protein_coding transcript_biotype:protein_coding |
Sequence length |
1868 |
Sequence |
HSTFVSALQVQVLITDENDCVPEFLQSIYSVDGVPETVTTATSLLQGLIRLRSNPLPKLQ
GLEYVLNVTATDDNASGGPQPLFSTARVIVGVDDVNNNKPVFKEVSDHSFKANGLGPQDL
LAITQSLLFNKCQQYREQASVLENQPTGTFVLQVHAVDADEGANGKVKYGLMHRDSAMPA
FRIHPDTGAIVTAQRFDRERQREYSVTVTATDWAEEPLIGICQLTVQILDQNDNSPKFEN
LRYEKSKKKKPLVLQLECTYIICIACRLPERGHFVSSAWQLMMMTSARMQLSLTPCPRSS
LSTCRSTPSLDGSTSTSRYHSCQPHTHTLKDPPIPKAFEVPGKMSSLFSGLKLTLIIFLS
FSLSQRCIINYNLCLHWSLEKSYACSQTGLSPGKPADAVVAQSRHAVSEELIAITANHLT
SPSLCASATHLQPQKSAQRTYITRDIVATDGGNRSSSVELAVTITNVKNQPPQWEEENYS
VVIPENTARDTPIVTIKATSQLGDPRVTYNLEDGMVPETNMPVRFYLSPNREDGSASILV
SEPLDYETTSFFSLRVRAQNVAAVPLAAFTTVYVNITDVNDNVPFFTSSIYEASVTEGAQ
IGTSVLQVSAHDKDLGLNGQITYTLLSDSSGDHSLFRIDPELGIIYTEAVFDREARSSYL
LERLYEVGVDEDADVGLAVVTVSATDEDEAGANAKLRYQITSGNKGGVFDIEPEVGTIFV
AQPLDYEQQKRYKLLVLASDGRWEDYAAIVVTVVNKNDEAPVFSMNEYYGSVTEELDGSP
VFVLQVTATDPDKDADQGAIRYSIHGQGAESHFVINDITGEMYAQRTMDREERTVWRFVV
MATDEEGEGLTGFTDVIINVWDINDNAPTFTCAPDNCHSSIAENSPPGTLVVEMTAVDLD
DAAIGQNAILTYRITKNVRNTNKEDFFAIDSSTGTISVAAEGLDREFADTHRVVVEASDG
GGMTGTATVTIAVTDINDHAPKFLEDWCGAHVSENTDKDASVLELRAVDPDIGTYGQLTF
SVLAGDLDQRFYMMSNRERQMGILMLKEKLDFEKPAEQGFNLTIKVEDSDFSSIIHCLIQ
IDDENDNAPEFASSSHLLPPLPEDVPVGTSIIQVVATDTDSGLNGEILYSILPQSDPHGH
FAVSRAGLVAVARPLDRETVAGYELVVMATDGTPALTASVTVHLLLLDTNDNGPELETAY
APVMPLVNPHLEPWHKPANPTTKSQRYRKGGKCGTGEEKLHAVLAAHKRKLQSLLRVNVS
QVEVDECVHADCRASGGCFTQLSVSNSPSLLDSGALSLVSVKVTPVAVCGCAAREMTYRI
CASYPGNPCLNGGTCMDTKNGYRMKPGTKTTGCCCAGPLATLLPGDTEDYMAIELIGGTP
SLKMNHGSGTLVLQLNHNIGVANGRWHRLDVRSNSKEVHFTLDRCSSAVIMETEGVDSWV
MTEDRSSCEIRGVTPKRDNGCIRNLLVDSKLYDLGSPAEASNTVPGCTLIDGHCTDGEPR
PPCGLRGHCHSHWGSYSCLCQPGFTGPQCDRDWQAAPEFSFDGRSHIQFQLSGSLPARQT
RVQVGVRTRAAAGVILSLLSQEQNEYLRLEVIQGLLAVFYNLGDGDYNLTLPHQHLSDGE
WHELELDRYGREFTLRLDGGGGRREVTASRGQGQEIVVDPTTVMLGNSFPSGHNHSFLGS
DVWGLTLPRAAKYPSGRRKPSEKEAHADSLASGCLSVFVHENVDAGQLKCPPGHITRETT
QGKVCMYTLCASRPCRHGTCVAHSPSRYSCHCSEGYRGRHCEVTLAMFHNEDNNSLSLSS
MFAISICVMAFLVLMLGLFLYSCWRRHKGLKEGVYHVSAHHGEWEDIRENVLNYDEEGGG
EQDQVRPH
|
Jump to [ Top · Protein sequence · Domain architecture ]
Domain architecture

1
Jump to [ Top · Protein sequence · Domain architecture ]
|
  
|