Download QuickGO Gene Ontology term records as JSON by GO ID.
Download AlphaFold DB predicted structures and confidence files by UniProt accession.
Download BindingDB binding record files by BindingDB monomer ID.
Download PDB, CIF, and FASTA files from RCSB PDB by 4-character structure ID.
Download PDBe structure files as PDB and CIF by PDB ID.
Download UniProt protein sequence records as FASTA and JSON by accession.
Download Rhea biochemical reaction records as RDF by Rhea reaction ID.
Calculate the aliphatic index of protein sequences. A measure of the relative volume occupied by aliphatic side chains, indicating thermostability.
Calculate the molar extinction coefficient of protein sequences at 280 nm. Used for protein concentration determination by UV spectroscopy.
Find potential N-linked glycosylation sites (NX[S/T] sequons) in protein sequences. Identifies asparagine residues in the consensus motif for N-glycosylation.
Download QuickGO Gene Ontology term records as JSON by GO ID.
Download AlphaFold DB predicted structures and confidence files by UniProt accession.
Download BindingDB binding record files by BindingDB monomer ID.
Download PDB, CIF, and FASTA files from RCSB PDB by 4-character structure ID.
Download PDBe structure files as PDB and CIF by PDB ID.
Download UniProt protein sequence records as FASTA and JSON by accession.
Download Rhea biochemical reaction records as RDF by Rhea reaction ID.
Calculate the aliphatic index of protein sequences. A measure of the relative volume occupied by aliphatic side chains, indicating thermostability.
Calculate the molar extinction coefficient of protein sequences at 280 nm. Used for protein concentration determination by UV spectroscopy.
Find potential N-linked glycosylation sites (NX[S/T] sequons) in protein sequences. Identifies asparagine residues in the consensus motif for N-glycosylation.
Configure inputs to begin
Set options on the left, then click “Fetch downloads” — or start from an example.
IPR000719
IPR001245
IPR011009
InterPro Download fetches protein family, domain, repeat, and functional site records by InterPro accession. It returns the InterPro JSON record and entry metadata such as name, type, source database, and integrated entry when available.
Use this tool when you need protein domain or family annotations for sequence interpretation, reporting, or reproducible metadata.
| Input | Description |
|---|---|
Entry ID | InterPro accession. Examples: IPR000719, IPR001245, IPR011009. |
| Setting | Description |
|---|---|
Database | Opens the selected database download tool. |
| File | Format | Use |
|---|---|---|
| JSON | .json | InterPro entry record for programmatic use. |
The results panel lists the InterPro JSON file as a downloadable item. The Details tab records the database, entry ID, record title, file label, format, source type, filename, and URL.
Filenames follow the pattern:
interpro-IPR000719-json.jsonFor sequence-level analyses that can complement InterPro annotations, use HMMER, MMseqs2, or Protein Parameters.
InterPro accessions begin with IPR followed by digits. They identify protein families, domains, repeats, and functional sites.
No. This tool retrieves InterPro records by accession. Use annotation or search tools when you need to analyze a sequence.
JSON is convenient for reproducible analysis, metadata extraction, and record keeping in automated workflows.