Fluxes in "free" and total zinc are essential for progression of intraerythrocytic stages of plasmodium falciparum

Keyphrases

• Small Molecules 100%
• Zinc 100%
• Plasmodium Falciparum 100%
• Cell Signaling 50%
• Freely Available 50%
• Mitochondria 50%
• Host Cell 50%
• Cell Development 50%
• Quantitative Imaging 50%
• Cell Differentiation 50%
• Zinc Flux 50%
• Zinc Availability 50%
• Ion Concentration 50%
• Erythrocytes 50%
• Mitochondrial Membrane Potential 50%
• Ion-molecule 50%
• Parasite Growth 50%
• Zinc Concentration 50%
• Blood Stage 50%
• Metal Concentration 50%
• Zinc Atom 50%
• Available Forms 50%
• Infection Cycle 50%
• Dynamic Fluxes 50%
• Food Vacuole 50%
• Eukaryotic Parasites 50%
• Cell Rupture 50%
• Zinc Acquisition 50%
• Zinc Trafficking 50%
• Parasite Development 50%

Immunology and Microbiology

• Plasmodium falciparum 100%
• Food Vacuole 50%
• Cell Differentiation 50%
• Cell Maturation 50%
• Host Cell 50%
• Mitochondrion 50%
• Erythrocyte 50%
• Mitochondrial Membrane Potential 50%
• Parasite Development 50%
• Signal Transduction 50%

Biochemistry, Genetics and Molecular Biology

• Zinc 100%
• Plasmodium falciparum 100%
• Small Molecule 66%
• Signal Transduction 33%
• Cell Maturation 33%
• Mitochondrion 33%
• Cellular Differentiation 33%
• Mitochondrial Membrane Potential 33%
• Parasite Development 33%