Sulfur Containing Compound Database
Gene name | TGG2 |
AGI ID | AT5G25980 |
Gene length | 547 |
Uniprot ID | Q9C5C2 |
Protein Name | Myrosinase 2 |
Synonym | BGLU37 |
EC number | EC 3.2.1.147 |
Entrez Gene | 832667 |
Refseq mrna | NM_180745 |
Refseq protein | NP_851076 |
Function | Glucosinolate breakdown in crushed leaves of tgg1 or tgg2 single mutants was comparable to that of wild-type; indicating redundant enzyme function. In contrast; leaf extracts of tgg1 tgg2 double mutants had undetectable myrosinase activity in vitro and damage-induced breakdown of endogenous GSLs was apparently absent for aliphatic and greatly slowed for indole GSLs (Barth & Jander 2006) |
Group | GSL degradation |
Reference | Wittstock & Burow (2010); Barth & Jander (2006) |
Organism | AGI ID | Gene Name | Protein Name | Identity | E-Value | Description |
---|---|---|---|---|---|---|
Cabbage |
TGG2 |
Myrosinase 2 |
69 |
0.00E+00 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
69 |
0.00E+00 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
69 |
0.00E+00 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
66 |
0.00E+00 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
66 |
0.00E+00 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
67 |
0.00E+00 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
62 |
0.00E+00 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
70 |
0.00E+00 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
72 |
0.00E+00 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
51 |
8.00E-170 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
50 |
5.00E-166 |
||
Papaya |
TGG2 |
Myrosinase 2 |
49 |
1.00E-165 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
46 |
1.00E-147 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
45 |
9.00E-147 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
45 |
3.00E-146 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
45 |
4.00E-146 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
49 |
1.00E-144 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
73 |
1.00E-144 |
||
Papaya |
TGG2 |
Myrosinase 2 |
46 |
2.00E-144 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
43 |
2.00E-143 |
||
Papaya |
TGG2 |
Myrosinase 2 |
45 |
1.00E-142 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
43 |
6.00E-142 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
47 |
1.00E-141 |
||
Papaya |
TGG2 |
Myrosinase 2 |
45 |
1.00E-141 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
46 |
2.00E-139 |
||
Papaya |
TGG2 |
Myrosinase 2 |
44 |
2.00E-138 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
45 |
7.00E-137 |
||
Papaya |
TGG2 |
Myrosinase 2 |
44 |
2.00E-136 |
||
Papaya |
TGG2 |
Myrosinase 2 |
44 |
6.00E-136 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
45 |
5.00E-135 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
43 |
4.00E-133 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
41 |
3.00E-132 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
43 |
2.00E-131 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
43 |
3.00E-131 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
42 |
3.00E-131 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
41 |
1.00E-130 |
||
Papaya |
TGG2 |
Myrosinase 2 |
45 |
2.00E-130 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
42 |
1.00E-129 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
42 |
5.00E-129 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
42 |
5.00E-129 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
42 |
9.00E-129 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
42 |
2.00E-128 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
43 |
4.00E-128 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
43 |
9.00E-126 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
41 |
1.00E-125 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
41 |
1.00E-125 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
41 |
2.00E-125 |
||
Papaya |
TGG2 |
Myrosinase 2 |
44 |
1.00E-124 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
41 |
3.00E-124 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
40 |
1.00E-123 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
42 |
5.00E-122 |
||
Broccoli |
TGG2 |
Myrosinase 2 |
41 |
3.00E-120 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
40 |
2.00E-119 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
41 |
3.00E-119 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
40 |
1.00E-116 |
||
Papaya |
TGG2 |
Myrosinase 2 |
40 |
7.00E-116 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
41 |
2.00E-114 |
||
Papaya |
TGG2 |
Myrosinase 2 |
40 |
2.00E-114 |
||
Cabbage |
TGG2 |
Myrosinase 2 |
40 |
3.00E-114 |
||
Papaya |
TGG2 |
Myrosinase 2 |
44 |
3.00E-114 |
||
Papaya |
TGG2 |
Myrosinase 2 |
40 |
4.00E-107 |
GO ID | Ontology | GO Term | Description |
---|---|---|---|
BP |
defense response to insect |
A response to protect an organism from a directly detected or perceived external threat from an insect or insects to that organism. |
|
MF |
hydrolase activity, hydrolyzing O-glycosyl compounds |
Catalysis of the hydrolysis of any O-glycosyl bond. |
|
CC |
extracellular region |
A location, relative to cellular compartments and structures, occupied by a macromolecular machine when it carries out a molecular function. There are two ways in which the gene ontology describes locations of gene products: (1) relative to cellular struc |
|
CC |
vacuole |
A closed structure, found only in eukaryotic cells, that is completely surrounded by unit membrane and contains liquid material. Cells contain one or several vacuoles, that may have different functions from each other. Vacuoles have a diverse array of fun |
|
CC |
peroxisome |
A small organelle enclosed by a single membrane, and found in most eukaryotic cells. Contains peroxidases and other enzymes involved in a variety of metabolic processes including free radical detoxification, lipid catabolism and biosynthesis, and hydrogen |
|
BP |
carbohydrate metabolic process |
The chemical reactions and pathways involving carbohydrates, any of a group of organic compounds based of the general formula Cx(H2O)y. Includes the formation of carbohydrate derivatives by the addition of a carbohydrate residue to another molecule. |
|
MF |
beta-glucosidase activity |
Catalysis of the hydrolysis of terminal, non-reducing beta-D-glucose residues with release of beta-D-glucose. |
|
CC |
plasmodesma |
A fine cytoplasmic channel, found in all higher plants, that connects the cytoplasm of one cell to that of an adjacent cell. |
|
CC |
chloroplast |
A chlorophyll-containing plastid with thylakoids organized into grana and frets, or stroma thylakoids, and embedded in a stroma. |
|
BP |
response to salt stress |
Any process that results in a change in state or activity of a cell or an organism (in terms of movement, secretion, enzyme production, gene expression, etc.) as a result of a stimulus indicating an increase or decrease in the concentration of salt (parti |
|
BP |
response to abscisic acid |
Any process that results in a change in state or activity of a cell or an organism (in terms of movement, secretion, enzyme production, gene expression, etc.) as a result of an abscisic acid stimulus. |
|
BP |
abscisic acid-activated signaling pathway |
A series of molecular signals generated by the binding of the plant hormone abscisic acid (ABA) to a receptor, and ending with modulation of a cellular process, e.g. transcription. |
|
BP |
regulation of stomatal movement |
Any process that modulates the frequency, rate or extent of stomatal movement. |
|
MF |
thioglucosidase activity |
Catalysis of the reaction: a thioglucoside + H2O = a thiol + a sugar. |
|
BP |
glucosinolate catabolic process |
The chemical reactions and pathways resulting in the breakdown of glucosinolates, substituted thioglucosides found in rapeseed products and related cruciferae. |
|
CC |
cytosolic ribosome |
A ribosome located in the cytosol. |
|
CC |
apoplast |
The cell membranes and intracellular regions in a plant are connected through plasmodesmata, and plants may be described as having two major compartments: the living symplast and the non-living apoplast. The apoplast is external to the plasma membrane and |
Pubmed ID | Authors | Year | Title | Journal | Description |
---|---|---|---|---|---|
Barth, C. & Jander, G. |
2006 |
Arabidopsis myrosinases TGG1 and TGG2 have redundant function in glucosinolate breakdown and insect defense |
The Plant Journal |
||
Wittstock, U. & Burow, M. |
2010 |
Glucosinolate breakdown in Arabidopsis: mechanism, regulation and biological Significance |
Arabidopsis Book |