A Single Protein S-acyl Transferase Acts through Diverse Substrates to Determine Cryptococcal Morphology, Stress Tolerance, and Pathogenic Outcome

Keyphrases

• Cryptococcus 100%
• Single Cell Protein 100%
• Stress Tolerance 100%
• Diverse Substrates 100%
• Protein Acyltransferase 100%
• Virulence 66%
• Phagocytes 66%
• Latency 33%
• Patient Outcomes 33%
• Specificity Protein 1 33%
• Protein Substrate 33%
• Cryptococcus Neoformans 33%
• Phenotypic Change 33%
• Antifungal Therapy 33%
• Lipid Modification 33%
• Signal Transduction 33%
• Phagocytosis 33%
• Membrane Trafficking 33%
• First Line of Defence 33%
• Host Interaction 33%
• Meningitis 33%
• Multiple Genes 33%
• Protein Modification 33%
• Pathogenic Fungi 33%
• Cell Wall Synthesis 33%
• Protein Palmitoylation 33%
• Human Monocytic Cell Line 33%
• High-content Imaging 33%
• Facultative Intracellular Pathogens 33%
• Palmitoylome 33%
• New Antifungal 33%
• Bioorthogonal 33%
• Fungal Adherence 33%
• Intracellular Proliferation 33%
• Opportunistic Yeasts 33%

Immunology and Microbiology

• Infectious Agent 100%
• Phagocyte 100%
• Stress 100%
• Meningitis 50%
• Cell Line 50%
• Signal Transduction 50%
• Cryptococcus neoformans 50%
• Cell Wall 50%
• Phagocytosis 50%
• Pathogenic Fungi 50%
• Fungus Mutant 50%
• Palmitoylation 50%

Biochemistry, Genetics and Molecular Biology

• N-Acetyltransferase 100%
• Stress 100%
• Protein S 100%
• Infectious Agent 66%
• Phagocyte 66%
• Signal Transduction 33%
• Lipid 33%
• Phagocytosis 33%
• Cryptococcus neoformans 33%
• Fungus Mutant 33%
• Palmitoylation 33%
• Membrane Trafficking 33%