Toxicogenomic analysis provides new insights into molecular mechanisms of the sublethal toxicity of 2,4,6-trinitrotoluene in Eisenia fetida

Engineering & Materials Science

• Toxicogenetics 100%
• Toxicity 63%
• Microarrays 60%
• Gene expression 58%
• Polymerase chain reaction 52%
• Transcription 41%
• Genes 34%
• Soils 27%
• Pesticides 24%
• Coagulation 23%
• Neurology 21%
• Assays 20%
• Calcium 19%
• Muscle 16%
• Blood 16%
• Iron 15%
• Oxygen 14%
• Experiments 6%

Earth & Environmental Sciences

• trinitrotoluene 75%
• gene expression 26%
• immunity 18%
• polymerase chain reaction 17%
• earthworm 17%
• dose 16%
• explosive 14%
• analysis 14%
• gene 11%
• soil organism 10%
• homeostasis 9%
• xenobiotics 9%
• nervous system 8%
• biological processes 7%
• coagulation 7%
• muscle 6%
• pesticide 6%
• assay 6%
• blood 6%
• calcium 5%
• regulation 5%
• iron 5%
• oxygen 4%
• soil 3%
• experiment 2%

Chemical Compounds

• 2,4,6-trinitrotoluene 71%
• Microarrays 28%
• Dose 20%
• Chain Reaction 17%
• Soil 15%
• Acute Toxicity 10%
• Lethal 10%
• Xenobiotic Agent 10%
• Complementary DNA 9%
• Coagulation 9%
• Pesticide 8%
• Disorder 7%
• Calcium(0) 6%
• Environment 5%
• Dioxygen 4%