How to Dissolve PolyAluminum Chloride (PAC) for Water Treatment | Bluwat Chemicals

Other Videos
February 11, 2025
Category Connection: Polyaluminium Chloride
Brief: Discover how to dissolve PolyAluminum Chloride (PAC) for effective water treatment in the chemical industry. Learn about the experiment process, chemical reagents, and optimal dosages for wastewater treatment with Bluwat Chemicals.
Related Product Features:
  • Inorganic polymer flocculant with excellent purifying effects on low-temperature, low turbidity, and heavily organic polluted raw water.
  • Quick formation of large flocs with rapid precipitation, enhancing the service life of sedimentation basins.
  • Lower dosage compared to other flocculants, improving treated water quality and reducing costs by 20%-80%.
  • Wide-range adaptability to different water temperatures and regional conditions, suitable for both summer and winter.
  • Compatible with automatic dosing devices and adaptable to a wide pH range (5-9).
  • Available in spray-drying powder form with high Al2O3 content (29% min) and low heavy metal impurities.
  • Easy to store with a shelf life of 24 months when kept in dry, ventilated conditions away from rain and sunlight.
  • Versatile usage with customizable dilution ratios and dosages based on coagulation tests and experiments.
Faqs:
  • What is the recommended dosage of Polyaluminium Chloride (PAC) for wastewater treatment?
    The dosage varies based on the application, but typically, the liquid product dosage is 3-40kg/1000 tons of water, and the solid product dosage is 1-15kg/1000 tons of water. Optimal dosage should be determined through coagulation tests.
  • How should Polyaluminium Chloride (PAC) be stored?
    PAC should be sealed and stored in a dry, ventilated place, protected from rain, high temperatures, and strong sunlight. The shelf life is 24 months under proper storage conditions.
  • What are the advantages of using PAC over other flocculants?
    PAC offers superior purifying effects, especially in low-temperature and heavily polluted water, forms larger flocs faster, requires lower dosages, and is cost-effective, reducing treatment costs by 20%-80%. It also adapts to a wide pH range and varying water conditions.