EC Number | Cloned (Comment) | Organism |
---|---|---|
3.4.22.2 | gene CpXCP5, genotyping using the peptidase_C1 domain, phylogenetic analysis and tree, quantitative real-time PCR enzyme expression analysis | Carica papaya |
3.4.22.6 | gene CpXCP8, genotyping using the peptidase_C1 domain, phylogenetic analysis and tree, quantitative real-time PCR enzyme expression analysis | Carica papaya |
3.4.22.25 | gene CpXCP7, genotyping using the peptidase_C1 domain, phylogenetic analysis and tree, quantitative real-time PCR enzyme expression analysis | Carica papaya |
3.4.22.30 | genotyping using the peptidase_C1 domain, phylogenetic analysis and tree, quantitative real-time PCR enzyme expression analysis | Carica papaya |
EC Number | Localization | Comment | Organism | GeneOntology No. | Textmining |
---|---|---|---|---|---|
3.4.22.2 | extracellular | - |
Carica papaya | - |
- |
3.4.22.6 | extracellular | - |
Carica papaya | - |
- |
3.4.22.25 | extracellular | - |
Carica papaya | - |
- |
3.4.22.30 | extracellular | - |
Carica papaya | - |
- |
EC Number | Organism | UniProt | Comment | Textmining |
---|---|---|---|---|
3.4.22.2 | Carica papaya | P00784 | var. Zhonghuang | - |
3.4.22.6 | Carica papaya | P14080 | var. Zhonghuang | - |
3.4.22.25 | Carica papaya | P05994 | var. Zhonghuang | - |
3.4.22.30 | Carica papaya | P10056 | var. Zhonghuang | - |
EC Number | Purification (Comment) | Organism |
---|---|---|
3.4.22.2 | native enzyme from latex | Carica papaya |
3.4.22.6 | native enzyme from latex | Carica papaya |
3.4.22.25 | native enzyme from latex | Carica papaya |
3.4.22.30 | native enzyme from latex | Carica papaya |
EC Number | Source Tissue | Comment | Organism | Textmining |
---|---|---|---|---|
3.4.22.2 | fruit | green fruit skin has the highest enzyme content, ripening decreases the enzyme level | Carica papaya | - |
3.4.22.2 | latex | Papaya latex is usually harvested from fruit skin of green papaya fruits by mechanical wounding | Carica papaya | - |
3.4.22.2 | leaf | - |
Carica papaya | - |
3.4.22.2 | additional information | gene expression patterns of the papaya PLCP genes in different tissues are assessed by transcriptome sequencing and quantitative RT-PCR. Most of the papaya PLCP genes of subfamily III are expressed at high levels in leaf and green fruit tissues | Carica papaya | - |
3.4.22.6 | fruit | green fruit skin has the highest enzyme content, ripening decreases the enzyme level | Carica papaya | - |
3.4.22.6 | latex | Papaya latex is usually harvested from fruit skin of green papaya fruits by mechanical wounding | Carica papaya | - |
3.4.22.6 | leaf | - |
Carica papaya | - |
3.4.22.6 | additional information | gene expression patterns of the papaya PLCP genes in different tissues are assessed by transcriptome sequencing and quantitative RT-PCR. Most of the papaya PLCP genes of subfamily III are expressed at high levels in leaf and green fruit tissues | Carica papaya | - |
3.4.22.25 | fruit | green fruit skin has the highest enzyme content, ripening decreases the enzyme level | Carica papaya | - |
3.4.22.25 | latex | Papaya latex is usually harvested from fruit skin of green papaya fruits by mechanical wounding | Carica papaya | - |
3.4.22.25 | leaf | - |
Carica papaya | - |
3.4.22.25 | additional information | gene expression patterns of the papaya PLCP genes in different tissues are assessed by transcriptome sequencing and quantitative RT-PCR. Most of the papaya PLCP genes of subfamily III are expressed at high levels in leaf and green fruit tissues | Carica papaya | - |
3.4.22.30 | fruit | green fruit skin has the highest enzyme content, ripening decreases the enzyme level | Carica papaya | - |
3.4.22.30 | latex | Papaya latex is usually harvested from fruit skin of green papaya fruits by mechanical wounding | Carica papaya | - |
3.4.22.30 | leaf | - |
Carica papaya | - |
3.4.22.30 | additional information | gene expression patterns of the papaya PLCP genes in different tissues are assessed by transcriptome sequencing and quantitative RT-PCR. Most of the papaya PLCP genes of subfamily III are expressed at high levels in leaf and green fruit tissues | Carica papaya | - |
EC Number | Synonyms | Comment | Organism |
---|---|---|---|
3.4.22.2 | CpXCP5 | - |
Carica papaya |
3.4.22.2 | Papaya proteinase I | UniProt | Carica papaya |
3.4.22.6 | CpXCP8 | - |
Carica papaya |
3.4.22.6 | papaya proteinase II | UniProt | Carica papaya |
3.4.22.25 | CpXCP7 | - |
Carica papaya |
3.4.22.25 | Papaya proteinase 4 | UniProt | Carica papaya |
3.4.22.30 | Papaya proteinase III | UniProt | Carica papaya |
EC Number | General Information | Comment | Organism |
---|---|---|---|
3.4.22.2 | evolution | all four major papain-like cysteine proteases (PLCPs) purified from papaya latex, including papain, chymopapain, glycyl endopeptidase and caricain, are grouped into the lineage-specific expansion branch in the subfamily III of papain-like cysteine proteases (PLCPs). Tandem duplications play the dominant role in affecting copy number of PLCPs in plants. Significant variations in size of the PLCP subfamilies among species may reflect genetic adaptation of plant species to different environments. The lineage-specific expansion of papaya PLCPs of subfamily III might have been promoted by the continuous reciprocal selective effects of herbivore attack and plant defense. Phylogenetic analysis, conserved domain identification, gene duplication analysis, and chromosomal distribution of PLCPs, overview | Carica papaya |
3.4.22.2 | metabolism | papain-like cysteine proteases (PLCPs), a large group of cysteine proteases structurally related to papain, play important roles in plant development, senescence, and defense responses | Carica papaya |
3.4.22.6 | evolution | all four major papain-like cysteine proteases (PLCPs) purified from papaya latex, including papain, chymopapain, glycyl endopeptidase and caricain, are grouped into the lineage-specific expansion branch in the subfamily III of papain-like cysteine proteases (PLCPs). Tandem duplications play the dominant role in affecting copy number of PLCPs in plants. Significant variations in size of the PLCP subfamilies among species may reflect genetic adaptation of plant species to different environments. The lineage-specific expansion of papaya PLCPs of subfamily III might have been promoted by the continuous reciprocal selective effects of herbivore attack and plant defense. Phylogenetic analysis, conserved domain identification, gene duplication analysis, and chromosomal distribution of PLCPs, overview | Carica papaya |
3.4.22.6 | metabolism | papain-like cysteine proteases (PLCPs), a large group of cysteine proteases structurally related to papain, play important roles in plant development, senescence, and defense responses | Carica papaya |
3.4.22.25 | evolution | all four major papain-like cysteine proteases (PLCPs) purified from papaya latex, including papain, chymopapain, glycyl endopeptidase and caricain, are grouped into the lineage-specific expansion branch in the subfamily III of papain-like cysteine proteases (PLCPs). Tandem duplications play the dominant role in affecting copy number of PLCPs in plants. Significant variations in size of the PLCP subfamilies among species may reflect genetic adaptation of plant species to different environments. The lineage-specific expansion of papaya PLCPs of subfamily III might have been promoted by the continuous reciprocal selective effects of herbivore attack and plant defense. Phylogenetic analysis, conserved domain identification, gene duplication analysis, and chromosomal distribution of PLCPs, overview | Carica papaya |
3.4.22.25 | metabolism | papain-like cysteine proteases (PLCPs), a large group of cysteine proteases structurally related to papain, play important roles in plant development, senescence, and defense responses | Carica papaya |
3.4.22.30 | evolution | all four major papain-like cysteine proteases (PLCPs) purified from papaya latex, including papain, chymopapain, glycyl endopeptidase and caricain, are grouped into the lineage-specific expansion branch in the subfamily III of papain-like cysteine proteases (PLCPs). Tandem duplications play the dominant role in affecting copy number of PLCPs in plants. Significant variations in size of the PLCP subfamilies among species may reflect genetic adaptation of plant species to different environments. The lineage-specific expansion of papaya PLCPs of subfamily III might have been promoted by the continuous reciprocal selective effects of herbivore attack and plant defense. Phylogenetic analysis, conserved domain identification, gene duplication analysis, and chromosomal distribution of PLCPs, overview | Carica papaya |
3.4.22.30 | metabolism | papain-like cysteine proteases (PLCPs), a large group of cysteine proteases structurally related to papain, play important roles in plant development, senescence, and defense responses | Carica papaya |