Bacterial Process for Production of Active Coagulant Protein
• Potential to significantly reduce operational costs
• Eliminates the need for inorganic coagulants
• Scalable
• Economical
• Advantageous use of B. subtilis
• Potential to significantly reduce operational costs
• Eliminates the need for inorganic coagulants
• Scalable
• Economical
• Advantageous use of B. subtilis
• In situ detection/removal of MEC from water in concentrations as low as one part per million
• Reaches final color and intensity after just 24 hours of exposure
• Scalable to treat larger bodies of water such as rivers, as well as small ponds and runoffs
• Uses abundant and inexpensive AFC materials
• Reusable
• Breaks target contaminants down into benign products
• Relies on non-toxic, earth-abundant photocatalysts with filterable particle diameters (> 0.1 μm)
• Uses energy-efficient solar radiation
• Degrades nitrobenzene & carbamazepine at rates equal to that of existing commercial systems
• In-situ treatment for contaminated subsurface soil and groundwater
• Removes > 95% of TNT and NB
• Reduces chlorinated propane concentrations to non-detectable levels
• Utilizes inexpensive ammonia gas
• Environmentally friendly
• Purifies water when other treatment facilities are off-line or unavailable
• Selectably controls bleach concentration
• Easily transportable to remote locations
• Energy efficient