Plant GSTome: structure and functional role in xenome network and plant stress response

NE Labrou, AC Papageorgiou, O Pavli… - Current opinion in …, 2015 - Elsevier
NE Labrou, AC Papageorgiou, O Pavli, E Flemetakis
Current opinion in biotechnology, 2015Elsevier
Highlights•GSTome contributes to cell detoxification, metabolism, stress/signalling.•GSTome
is organized in evolutionary distinct supergene families and classes.•The structural flexibility
contributes to functional and catalytic promiscuity.Glutathione transferases (GSTs) represent
a major group of detoxification enzymes. All plants possess multiple cytosolic GSTs, each of
which displays distinct catalytic as well as non-catalytic binding properties. The progress
made in recent years in the fields of genomics, proteomics and protein crystallography of …
Highlights
  • GSTome contributes to cell detoxification, metabolism, stress/signalling.
  • GSTome is organized in evolutionary distinct supergene families and classes.
  • The structural flexibility contributes to functional and catalytic promiscuity.
Glutathione transferases (GSTs) represent a major group of detoxification enzymes. All plants possess multiple cytosolic GSTs, each of which displays distinct catalytic as well as non-catalytic binding properties. The progress made in recent years in the fields of genomics, proteomics and protein crystallography of GSTs, coupled with studies on their molecular evolution, diversity and substrate specificity has provided new insights into the function of these enzymes. In plants, GSTs appear to be implicated in an array of different functions, including detoxification of xenobiotics and endobiotics, primary and secondary metabolism, stress tolerance, and cell signalling. This review focuses on plant GSTome and attempts to give an overview of its catalytic and functional role in xenome and plant stress regulatory networks.
Elsevier
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