Basic Information
Gene Structure
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Domain
| Database | EntryID | E-Value | Start | end | InterPro ID | Description |
|---|
Regulation&Interaction
Annotation
Orthologous Group
| Orthologous ID | Species Number | All hits in PereRegDB | Hits of this species | Orthologous Detail |
|---|
Expression Profile
| DataSet | Number of Samples expressed(TPM>1) | Mean | Min | Max | Standard deviation(SD) | Coeffcient variation(CV) |
|---|
Pathway
| GO Term | Description | GO Category |
|---|---|---|
| GO:0001101 | response to acid chemical | BP |
| GO:0003674 | molecular_function | MF |
| GO:0003824 | catalytic activity | MF |
| GO:0005575 | cellular_component | CC |
| GO:0005622 | intracellular anatomical structure | CC |
| GO:0005623 | obsolete cell | CC |
| GO:0005737 | cytoplasm | CC |
| GO:0005829 | cytosol | CC |
| GO:0006629 | lipid metabolic process | BP |
| GO:0006714 | sesquiterpenoid metabolic process | BP |
| GO:0006720 | isoprenoid metabolic process | BP |
| GO:0006721 | terpenoid metabolic process | BP |
| GO:0006950 | response to stress | BP |
| GO:0008150 | biological_process | BP |
| GO:0008152 | metabolic process | BP |
| GO:0008299 | isoprenoid biosynthetic process | BP |
| GO:0008610 | lipid biosynthetic process | BP |
| GO:0009058 | biosynthetic process | BP |
| GO:0009507 | chloroplast | CC |
| GO:0009532 | plastid stroma | CC |
| GO:0009536 | plastid | CC |
| GO:0009570 | chloroplast stroma | CC |
| GO:0009605 | response to external stimulus | BP |
| GO:0009607 | response to biotic stimulus | BP |
| GO:0009611 | response to wounding | BP |
| GO:0009625 | response to insect | BP |
| GO:0009719 | response to endogenous stimulus | BP |
| GO:0009725 | response to hormone | BP |
| GO:0009753 | response to jasmonic acid | BP |
| GO:0009975 | cyclase activity | MF |
| GO:0009987 | cellular process | BP |
| GO:0010033 | response to organic substance | BP |
| GO:0010333 | terpene synthase activity | MF |
| GO:0010334 | sesquiterpene synthase activity | MF |
| GO:0016098 | monoterpenoid metabolic process | BP |
| GO:0016099 | monoterpenoid biosynthetic process | BP |
| GO:0016106 | sesquiterpenoid biosynthetic process | BP |
| GO:0016114 | terpenoid biosynthetic process | BP |
| GO:0016829 | lyase activity | MF |
| GO:0016835 | carbon-oxygen lyase activity | MF |
| GO:0016838 | carbon-oxygen lyase activity, acting on phosphates | MF |
| GO:0034002 | (R)-limonene synthase activity | MF |
| GO:0034768 | (E)-beta-ocimene synthase activity | MF |
| GO:0042214 | terpene metabolic process | BP |
| GO:0042221 | response to chemical | BP |
| GO:0043207 | response to external biotic stimulus | BP |
| GO:0043226 | organelle | CC |
| GO:0043227 | membrane-bounded organelle | CC |
| GO:0043229 | intracellular organelle | CC |
| GO:0043231 | intracellular membrane-bounded organelle | CC |
| GO:0043692 | monoterpene metabolic process | BP |
| GO:0043693 | monoterpene biosynthetic process | BP |
| GO:0044237 | cellular metabolic process | BP |
| GO:0044238 | primary metabolic process | BP |
| GO:0044249 | cellular biosynthetic process | BP |
| GO:0044255 | cellular lipid metabolic process | BP |
| GO:0044422 | obsolete organelle part | CC |
| GO:0044424 | obsolete intracellular part | CC |
| GO:0044434 | obsolete chloroplast part | CC |
| GO:0044435 | obsolete plastid part | CC |
| GO:0044444 | obsolete cytoplasmic part | CC |
| GO:0044446 | obsolete intracellular organelle part | CC |
| GO:0044464 | obsolete cell part | CC |
| GO:0046246 | terpene biosynthetic process | BP |
| GO:0050550 | pinene synthase activity | MF |
| GO:0050551 | myrcene synthase activity | MF |
| GO:0050552 | (4S)-limonene synthase activity | MF |
| GO:0050896 | response to stimulus | BP |
| GO:0051704 | obsolete multi-organism process | BP |
| GO:0051707 | response to other organism | BP |
| GO:0052578 | alpha-farnesene synthase activity | MF |
| GO:0071704 | organic substance metabolic process | BP |
| GO:0080015 | sabinene synthase activity | MF |
| GO:0080027 | response to herbivore | BP |
| GO:1901576 | organic substance biosynthetic process | BP |
| GO:1901700 | response to oxygen-containing compound | BP |
| KEGG Term | Name | Description |
|---|---|---|
| map01110 | Biosynthesis of secondary metabolites | - |
| map01110 | Biosynthesis of secondary metabolites | - |
| map01110 | Biosynthesis of secondary metabolites | - |
| map01110 | Biosynthesis of secondary metabolites | - |
| map01100 | Metabolic pathways | - |
| map01100 | Metabolic pathways | - |
| map00902 | Monoterpenoid biosynthesis | Monoterpenoids (C10 terpenoids) are a group of terpenoids consisting of two isoprene units. They are derived from geranyl diphosphate (GPP). Most monoterpenoids are volatile oils with highly distinctive aromas and flavors, such as essential oils, turpentine, and oleoresins of coniferous plants. This map shows some examples. The monoterpene ketone l-menthone is specifically converted to l-menthol and d-neomenthol in mature peppermint leaves. The iridoids constitute a family of highly oxygenated monoterpenes, mixtures of which are present in many medicinal plants, such as valerian. They are derived from geraniol or nerol via oxidation of a terminal methyl group. The cyclopentane ring of loganin can itself be cleaved in a further P450-dependent step, leading to secologanin, which provides the carbon skeleton for many powerfully bioactive secondary metabolites of indole alkaloids. |
| map00902 | Monoterpenoid biosynthesis | Monoterpenoids (C10 terpenoids) are a group of terpenoids consisting of two isoprene units. They are derived from geranyl diphosphate (GPP). Most monoterpenoids are volatile oils with highly distinctive aromas and flavors, such as essential oils, turpentine, and oleoresins of coniferous plants. This map shows some examples. The monoterpene ketone l-menthone is specifically converted to l-menthol and d-neomenthol in mature peppermint leaves. The iridoids constitute a family of highly oxygenated monoterpenes, mixtures of which are present in many medicinal plants, such as valerian. They are derived from geraniol or nerol via oxidation of a terminal methyl group. The cyclopentane ring of loganin can itself be cleaved in a further P450-dependent step, leading to secologanin, which provides the carbon skeleton for many powerfully bioactive secondary metabolites of indole alkaloids. |
| map00902 | Monoterpenoid biosynthesis | Monoterpenoids (C10 terpenoids) are a group of terpenoids consisting of two isoprene units. They are derived from geranyl diphosphate (GPP). Most monoterpenoids are volatile oils with highly distinctive aromas and flavors, such as essential oils, turpentine, and oleoresins of coniferous plants. This map shows some examples. The monoterpene ketone l-menthone is specifically converted to l-menthol and d-neomenthol in mature peppermint leaves. The iridoids constitute a family of highly oxygenated monoterpenes, mixtures of which are present in many medicinal plants, such as valerian. They are derived from geraniol or nerol via oxidation of a terminal methyl group. The cyclopentane ring of loganin can itself be cleaved in a further P450-dependent step, leading to secologanin, which provides the carbon skeleton for many powerfully bioactive secondary metabolites of indole alkaloids. |
| map00900 | Terpenoid backbone biosynthesis | Terpenoids, also known as isoprenoids, are a large class of natural products consisting of isoprene (C5) units. There are two biosynthetic pathways, the mevalonate pathway [MD:M00095] and the non-mevalonate pathway or the MEP/DOXP pathway [MD:M00096], for the terpenoid building blocks: isopentenyl diphosphate (IPP) and dimethylallyl diphosphate (DMAPP). The action of prenyltransferases then generates higher-order building blocks: geranyl diphosphate (GPP), farsenyl diphosphate (FPP), and geranylgeranyl diphosphate (GGPP), which are the precursors of monoterpenoids (C10), sesquiterpenoids (C15), and diterpenoids (C20), respectively. Condensation of these building blocks gives rise to the precursors of sterols (C30) and carotenoids (C40). The MEP/DOXP pathway is absent in higher animals and fungi, but in green plants the MEP/DOXP and mevalonate pathways co-exist in separate cellular compartments. The MEP/DOXP pathway, operating in the plastids, is responsible for the formation of essential oil monoterpenes and linalyl acetate, some sesquiterpenes, diterpenes, and carotenoids and phytol. The mevalonate pathway, operating in the cytosol, gives rise to triterpenes, sterols, and most sesquiterpenes. |

