33 ProDom domains. ProDom 1 {"type": "domain"}
160 Conserved Domain Database models. CDD 1 {"type": "domain"}
20 Genes imported from CGH. See the species "About" page for more information. Genes imported from CGH. See the species "About" page for more information. 1 {"label_key": "[biotype]", "caption": "Genes", "colour_key": "[biotype]", "default": {"cytoview": "gene_label", "MultiBottom": "collapsed_label", "alignsliceviewbottom": "as_collapsed_label", "MultiTop": "gene_label", "contigviewbottom": "transcript_label", "contigviewtop": "gene_label"}, "name": "Genes", "key": "ensembl"}
16 Density of coding genes, calculated by dividing the chromosome into 150 "bins" and counting the genes in each. (For very short chromosomes, e.g. MT, some genes contribute to multiple bins.) Coding genes (density) 1 \N
25 Dust is a program that identifies low-complexity sequences (regions of the genome with a biased distribution of nucleotides, such as a repeat). The Dust module is widely used with BLAST to prevent 'sticky' regions from determining false hits. Low complexity (Dust) 1 \N
1 Assembly gap feature annotated in ENA Assembly gap (ENA) 1 \N
181 CATH/Gene3D families. Gene3D 1 {"type": "domain"}
187 \N GOA annotation 0 \N
31 GO term derived transitively from a UniProt record UniProt-derived GO term 0 \N
55 Gene encoding an enzyme annotated at the Plant Reactome. Plant Reactome 1 \N
162 HAMAP families. HAMAP 1 {"type": "domain"}
163 PANTHER families. PANTHER 1 {"type": "domain"}
183 InterPro2GO mapping, defined by InterPro. InterPro2GO mapping 0 \N
15 Density of long non-coding RNA genes, calculated by dividing the chromosome into 150 "bins" and counting the genes in each. (For very short chromosomes, e.g. MT, some genes contribute to multiple bins.) Long non-coding genes (density) 1 \N
173 Intrinsically disordered regions predicted by MobiDB lite. MobiDB lite 1 {"type": "feature"}
175 Coiled-coil regions predicted by Ncoils. Coiled-coils (Ncoils) 1 {"type": "feature"}
18 Percentage of repetitive elements for top level sequences (such as chromosomes, scaffolds, etc.) Repeats (percent) 1 \N
2 Percentage of G/C bases in the sequence. GC content 1 \N
164 Protein domains and motifs from the Pfam database. Pfam 1 {"type": "domain"}
184 Protein domains and motifs from the PROSITE profiles database. PROSITE profiles 1 {"type": "domain"}
166 Protein domains and motifs from the PIR (Protein Information Resource) Superfamily database. PIRSF 1 {"type": "domain"}
169 Protein fingerprints (groups of conserved motifs) from the PRINTS database. Prints 1 {"type": "domain"}
17 Density of pseudogenes, calculated by dividing the chromosome into 150 "bins" and counting the genes in each. (For very short chromosomes, e.g. MT, some genes contribute to multiple bins.) Pseudogenes (density) 1 \N
24 Repeats detected using the MIPS Repeat Database (REdat) using RepeatMasker. Repeats: REdat 1 \N
26 Repeats identified by RepeatMasker, using the Repbase library of repeat profiles. Repeats: Repbase 1 \N
182 Protein domains and motifs from the PROSITE patterns database. PROSITE patterns 1 {"type": "domain"}
179 Low complexity peptide sequences identified by Seg. Low complexity (Seg) 1 {"type": "feature"}
168 Structure-Function Linkage Database families. SFLD 1 {"type": "domain"}
19 Density of short non-coding RNA genes, calculated by dividing the chromosome into 150 "bins" and counting the genes in each. (For very short chromosomes, e.g. MT, some genes contribute to multiple bins.) Short non-coding genes (density) 1 \N
174 Signal peptide cleavage sites predicted by SignalP. Cleavage site (Signalp) 1 {"type": "feature"}
170 Protein domains and motifs from the SMART database. SMART 1 {"type": "domain"}
172 Protein domains and motifs from the SUPERFAMILY database. Superfamily 1 {"type": "domain"}
171 Protein domains and motifs from the TIGRFAM database. TIGRFAM 1 {"type": "domain"}
176 Transmembrane helices predicted by TMHMM. Transmembrane helices 1 {"type": "feature"}
27 Tandem Repeats Finder locates adjacent copies of a pattern of nucleotides. Tandem repeats (TRF) 1 \N
28 UniParc mapping based on sequence checksums UniParc cross-reference 0 \N
29 UniProt cross-reference derived transitively from a UniParc identifier UniParc-derived cross-reference 0 \N
30 Cross-reference derived transitively from a UniProt record UniProt-derived cross-reference 0 \N
32 Cross references to UniProt Swiss-Prot (reviewed) proteins, determined by alignment against the proteome with blastp. UniProt reviewed proteins 0 \N