Alpha-Fe₂O₃ elicits diameter-dependent effects during exposure to an in vitro model of the human placenta

Keyphrases

• In Vitro Model 100%
• Epithelium 100%
• Large Diameter 100%
• Human Placenta 100%
• Diameter-dependent 100%
• α-Fe2O3 100%
• Iron Oxide 50%
• Genotoxicity 50%
• Iron Oxide Nanoparticles 50%
• Fe2O3 Nanoparticles 50%
• Nanoparticles 25%
• DNA Microarray 25%
• Nanomaterials 25%
• Cell Death 25%
• In Vivo Analysis 25%
• Human Body 25%
• Reactive Oxygen Species 25%
• Tight Junction Proteins 25%
• Physicochemical Parameters 25%
• Reactive Oxygen Species Production 25%
• Unintended Consequences 25%
• B30.2 25%
• Induced Apoptosis 25%
• Enhanced Surface Area 25%
• Epithelial Integrity 25%
• Nutrient Absorption 25%
• During Pregnancy 25%
• Microvilli 25%
• Barrier Function 25%
• Potential Toxicity 25%
• Transepithelial Electrical Resistance 25%
• Immunolocalization 25%
• Leakiness 25%
• Ill-defined 25%
• Human Placental Cells 25%
• Cellular Viability 25%

Immunology and Microbiology

• Absorption 100%
• Morphology 100%
• Volume 100%
• Cell Viability 100%
• Surface Area 100%
• Chemical Parameter 100%
• Placenta 100%
• Cell Death 100%
• Placental Cell Line 100%
• Electric Resistance 100%
• Microvillus 100%
• Immunolocalization 100%
• DNA Microarray 100%
• Tight Junction 100%

Pharmacology, Toxicology and Pharmaceutical Science

• Nanoparticle 100%
• Iron Oxide Nanoparticle 66%
• Reactive Oxygen Metabolite 66%
• Genotoxicity 66%
• Nanomaterial 33%
• Protein ZO1 33%