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This book presents a comprehensive overview of intricate mechanisms of virulence, antimicrobial resistance, immune evasion, and biofilm formation of Staphylococcus aureus. It provides insights into mechanisms by which S. aureus acquires and sustains drug resistance, including gene mutation, efflux pumps, and horizontal gene transfer. The book examines the latest advancements in pathogen detection, application of artificial intelligence, and systems biology approaches in S. aureus research. In turn, the book examines host immune responses to persistent S. aureus infections, focusing on immune modulation, chronic inflammation, and evasion mechanisms. Further, the chapters review novel therapeutic interventions, including quorum sensing inhibitors, plant-derived antimicrobials, and innovative vaccine development. By integrating genomic research, computational biology, and emerging drug discovery techniques, this book outlines the next generation of treatment options for S. aureus-related infections.
Key Features:
? Explores the molecular and genetic mechanisms underlying S. aureus virulence, drug resistance, and host adaptation
? Examines antimicrobial resistance mechanisms and the growing challenge of multidrug-resistant S. aureus strains
? Discusses the role of biofilm formation and quorum sensing in disease persistence and treatment resistance
? Presents state-of-the-art diagnostic technologies, including AI-driven detection and molecular profiling techniques
? Reviews novel therapeutic approaches, including plant-based antimicrobials, quorum sensing inhibitors, and development of vaccines
This book is an important resource for students and researchers of microbiology and pharmaceutical sciences.
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This book presents a comprehensive overview of intricate mechanisms of virulence, antimicrobial resistance, immune evasion, and biofilm formation of Staphylococcus aureus. It provides insights into mechanisms by which S. aureus acquires and sustains drug resistance, including gene mutation, efflux pumps, and horizontal gene transfer. The book examines the latest advancements in pathogen detection, application of artificial intelligence, and systems biology approaches in S. aureus research. In turn, the book examines host immune responses to persistent S. aureus infections, focusing on immune modulation, chronic inflammation, and evasion mechanisms. Further, the chapters review novel therapeutic interventions, including quorum sensing inhibitors, plant-derived antimicrobials, and innovative vaccine development. By integrating genomic research, computational biology, and emerging drug discovery techniques, this book outlines the next generation of treatment options for S. aureus-related infections.
Key Features:
? Explores the molecular and genetic mechanisms underlying S. aureus virulence, drug resistance, and host adaptation
? Examines antimicrobial resistance mechanisms and the growing challenge of multidrug-resistant S. aureus strains
? Discusses the role of biofilm formation and quorum sensing in disease persistence and treatment resistance
? Presents state-of-the-art diagnostic technologies, including AI-driven detection and molecular profiling techniques
? Reviews novel therapeutic approaches, including plant-based antimicrobials, quorum sensing inhibitors, and development of vaccines
This book is an important resource for students and researchers of microbiology and pharmaceutical sciences.