February 15, 2013 | François L. Mayer, Duncan Wilson and Bernhard Hube
Candida albicans is a common member of the human microbiome that can cause infections ranging from superficial to life-threatening systemic infections. The pathogenicity of C. albicans is attributed to various factors, including adhesion and invasion mechanisms, biofilm formation, morphological transitions, and the secretion of hydrolases. The fungus can switch between yeast and hyphal forms, which are important for its ability to invade host cells and form biofilms. The ability to sense and respond to environmental cues, such as pH changes, is also crucial for its survival and virulence. C. albicans can utilize a variety of nutrients and has evolved mechanisms to acquire essential metals like iron, zinc, manganese, and copper. The fungus also has a robust stress response system, including heat shock proteins, which help it survive in hostile environments. The virulence of C. albicans is influenced by its ability to adapt to different host niches and to modulate its extracellular environment. Understanding these pathogenicity mechanisms is essential for developing new antifungal therapies and diagnostics. Targeting virulence factors, such as the heat shock response and metal acquisition systems, may offer promising strategies for combating C. albicans infections.Candida albicans is a common member of the human microbiome that can cause infections ranging from superficial to life-threatening systemic infections. The pathogenicity of C. albicans is attributed to various factors, including adhesion and invasion mechanisms, biofilm formation, morphological transitions, and the secretion of hydrolases. The fungus can switch between yeast and hyphal forms, which are important for its ability to invade host cells and form biofilms. The ability to sense and respond to environmental cues, such as pH changes, is also crucial for its survival and virulence. C. albicans can utilize a variety of nutrients and has evolved mechanisms to acquire essential metals like iron, zinc, manganese, and copper. The fungus also has a robust stress response system, including heat shock proteins, which help it survive in hostile environments. The virulence of C. albicans is influenced by its ability to adapt to different host niches and to modulate its extracellular environment. Understanding these pathogenicity mechanisms is essential for developing new antifungal therapies and diagnostics. Targeting virulence factors, such as the heat shock response and metal acquisition systems, may offer promising strategies for combating C. albicans infections.