Biological impact of nanoscale lithium intercalating complex metal oxides to model bacterium B. subtilis

Keyphrases

• Nanomaterials 100%
• Biological Impact 100%
• DNA Damage 100%
• Bacterial Cells 100%
• Lithium 100%
• Ni(II) Ions 100%
• Co Ion 100%
• Growth Respiration 100%
• B.subtilis 100%
• Cellular Respiration 100%
• Complex Metal Oxides 100%
• Highly Sensitive 50%
• Bacterial Growth 50%
• Environmental Impact 50%
• Gram-positive Bacteria 50%
• Genotoxicity 50%
• Environmental Stressors 50%
• Cellular Level 50%
• Growing Media 50%
• Energy Storage Devices 50%
• Cellular Growth 50%
• Bacterial DNA 50%
• Phenotypic Change 50%
• Ions in Solution 50%
• Bacillus Subtilis (B. subtilis) 50%
• Bacterial Respiration 50%
• Electrophoresis Method 50%
• Ion Release 50%
• Single-cell Gel Electrophoresis 50%
• Bacterial Response 50%
• Lithium Nickel Manganese Cobalt Oxide 50%
• Incongruent Dissolution 50%

Material Science

• Metal Oxide 100%
• Lithium 100%
• Cobalt Ion 66%
• Nanostructured Material 66%
• Nickel Ion 66%
• Cobalt 33%
• Manganese 33%
• Gel Electrophoresis 33%
• Oxide Compound 33%