Energy metabolism analysis reveals the mechanism of inhibition of breast cancer cell metastasis by PEG-modified graphene oxide nanosheets

Engineering & Materials Science

• Nanosheets 98%
• Graphene oxide 94%
• Polyethylene glycols 84%
• Energy Metabolism 82%
• Cells 63%
• Oxidative Phosphorylation 56%
• Labeling 14%
• Proteins 13%
• Enzyme inhibition 12%
• Medical nanotechnology 12%
• Reduced Graphene Oxide 11%
• Oncology 9%
• Adenosinetriphosphate 9%
• Cell culture 9%
• Isotopes 8%
• Biocompatibility 8%
• Amino acids 8%

Medicine & Life Sciences

• graphene oxide 100%
• Polyethylene Glycols 73%
• Energy Metabolism 59%
• Breast Neoplasms 41%
• Neoplasm Metastasis 40%
• Oxidative Phosphorylation 29%
• Isotope Labeling 9%
• Neoplasms 8%
• Nanomedicine 8%
• Actin Cytoskeleton 6%
• Actins 5%
• Cell Movement 5%
• Adenosine Triphosphate 5%
• Cell Culture Techniques 4%
• Proteins 4%
• Amino Acids 4%
• Phenotype 3%
• Survival 3%
• Therapeutics 1%

Chemistry

• Nanosheet 53%
• Graphene Oxide 51%
• Pharmacological Metabolism 50%
• Oxide 35%
• Energy 30%
• Antimetastatic Agent 18%
• Stable Isotope 11%
• Protein 9%
• Poly(ethylene Glycol) 8%
• Acid 3%