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Biology
Microbiology
Biofilms
1. Introduction to Biofilms
2. Biofilm Formation and Lifecycle
3. Biofilm Architecture and Composition
4. Physiology and Communication in Biofilms
5. Biofilm Resistance and Persistence
6. Biofilms in Medical and Clinical Contexts
7. Biofilms in Industrial and Environmental Systems
8. Methods for Studying Biofilms
9. Strategies for Biofilm Control and Eradication
10. Emerging Topics and Future Directions
Strategies for Biofilm Control and Eradication
Prevention of Biofilm Formation
Surface Modification
Anti-adhesive Coatings
Antimicrobial-Impregnated Surfaces
Surface Patterning
Hydrophilic Coatings
Environmental Control
Flow Rate Optimization
Nutrient Limitation
Temperature Control
pH Management
Material Selection
Low-fouling Materials
Antimicrobial Materials
Disruption of Existing Biofilms
Physical Removal Methods
Mechanical Scrubbing
Ultrasonication
High-Pressure Water Jets
Cavitation
Chemical Treatments
Biocides
Chlorine-based Compounds
Quaternary Ammonium Compounds
Aldehydes
Disinfectants
Surfactants
Detergents
Oxidizing Agents
Hydrogen Peroxide
Ozone
Peracetic Acid
Enzymatic Disruption of the EPS Matrix
DNases
Proteases
Polysaccharide-Degrading Enzymes
Cellulases
Amylases
Alginate Lyases
Novel Anti-Biofilm Approaches
Quorum Sensing Inhibition (Quorum Quenching)
Enzymatic Degradation of Signals
Signal Analogues
Natural QS Inhibitors
Bacteriophage Therapy
Phage Selection and Application
Phage-Encoded Enzymes
Phage Cocktails
Development of Biofilm-Specific Antibiotics
Targeting Biofilm-Specific Pathways
Combination Therapies
Persister Cell Targeting
Nanoparticle-Based Therapies
Antimicrobial Nanoparticles
Targeted Delivery Systems
Photodynamic Therapy
Use of Probiotics and Competitive Exclusion
Immunotherapy Approaches
Biofilm Dispersal Agents
Nitric Oxide
Dispersin B
Cis-2-decenoic Acid
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8. Methods for Studying Biofilms
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10. Emerging Topics and Future Directions