Metabolic Engineering to Reduce Toxicity Related to the Aerobic Degradation of Chlorinated Ethenes

Keyphrases

• Monooxygenase 100%
• Toluene 100%
• Metabolic Engineering 100%
• Chlorinated Ethenes 100%
• Aerobic Degradation 100%
• Reduced Toxicity 100%
• Epoxides 60%
• Hydroxylase 60%
• Glutathione S-transferase 40%
• Saturation mutagenesis 40%
• Chlorinated Ethylenes 40%
• 19th Century 20%
• Glutathione 20%
• Chloroform 20%
• Electron Transfer 20%
• Reductase 20%
• Trichloroethylene 20%
• Burkholderia Cepacia 20%
• International Conference 20%
• Ferredoxin Oxidoreductase 20%
• Naphthol 20%
• Chlorinated Aliphatic Hydrocarbons 20%
• Six Genes 20%
• Directed Evolution 20%
• Soil Water 20%
• DNA Shuffling 20%
• Soil Bacteria 20%
• Combined mutagenesis 20%
• Binuclear Iron 20%
• Critical Saturation 20%
• Soil Sediment 20%
• Naphthalene Oxidation 20%
• Rhodococcus Sp 20%
• Cis-DCE 20%

Biochemistry, Genetics and Molecular Biology

• Unspecific Monooxygenase 100%
• Metabolic Engineering 100%
• Oxygenase 60%
• Mutagenesis 60%
• Oxidoreductase 40%
• Ethylene 40%
• Glutathione S-Transferase 40%
• Enzyme 20%
• Glutathione 20%
• Electron Transport 20%
• Reductase 20%
• Alpha Oxidation 20%
• Ferredoxin 20%
• Burkholderia cepacia 20%
• DNA Shuffling 20%
• Chloroform 20%
• Trichloroethylene 20%

Pharmacology, Toxicology and Pharmaceutical Science

• Unspecific Monooxygenase 100%
• Ethylene 100%
• Oxygenase 60%
• Glutathione 60%
• Mutagenesis 60%
• Oxidoreductase 40%
• Transferase 40%
• Epoxide 40%
• Soil Microflora 20%
• Trichloroethylene 20%
• Ferredoxin 20%
• Burkholderia cepacia 20%
• Chloroform 20%
• Naphthalene 20%
• Ethylene Oxide 20%