Progress in plant metabolic engineering.
Over the past few years, there has been a growing realization that metabolic pathways must be studied in the context of the whole cell rather than at the single pathway level, and that even the simplest modifications can send ripples throughout the entire system. Attention has therefore shifted away from reductionist, single-gene engineering strategies and towards more complex approaches involving the simultaneous overexpression and/or suppression of multiple genes. The use of regulatory factors to control the abundance or activity of several enzymes is also becoming more widespread. In combination with emerging methods to model metabolic pathways, this should facilitate the enhanced production of natural products and the synthesis of novel materials in a predictable and useful manner.
Capell
Teresa
T
Fraunhofer Institute for Molecular Biology and Applied Ecology (IME), Grafschaft, Auf dem Aberg 1, 57392 Schmallenberg, Germany. tersea.capell@ime.fraunhofer.de
Christou
Paul
P
D000470:Alkaloids / Q000378:metabolism; D000596:Amino Acids / Q000378:metabolism; D019817:Benzoic Acid / Q000378:metabolism; D050260:Carbohydrate Metabolism; D005419:Flavonoids / Q000378:metabolism; D005818:Genetic Engineering / Q000379:methods*; D008031:Lignin / Q000378:metabolism; D050356:Lipid Metabolism; D030821:Plants, Genetically Modified / Q000235:genetics* / Q000378:metabolism*; D011073:Polyamines / Q000378:metabolism; D011809:Quinones / Q000378:metabolism; D015398:Signal Transduction; D013729:Terpenes / Q000378:metabolism
D000470:Alkaloids; D000596:Amino Acids; D005419:Flavonoids; D011073:Polyamines; D011809:Quinones; D013729:Terpenes; D019817:Benzoic Acid; D008031:Lignin