We answer your Water Chemistry Questions
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Saltwater pools experience higher pH due to turbulence and the caustic byproduct sodium hydroxide; consider ozone systems to reduce the workload on salt generators and mitigate pH rise.
Integrate enzymes into your weekly service to break down organic contaminants like suntan lotions and oils, reducing chlorine demand and preventing scum lines.
Address 'chlorine lock' by ensuring a proper ratio of free chlorine to cyanuric acid (CYA); for effective sanitation, maintain at least 7.5% of your CYA level in free chlorine, or 5% if using borates.
When testing very high CYA levels, dilute the pool water with tap water (e.g., 50/50) and multiply the test results to get an accurate reading.
Understand the byproducts of different chlorine types (cal-hypo adds calcium, dichlor adds CYA) and choose your shocking agent based on the pool's specific water chemistry needs.
Maintain pH levels between 7.4 and 7.6 for optimal chlorine effectiveness, as pH significantly impacts the active killing form of chlorine in the water.
Don't automatically fear high calcium hardness levels (e.g., 500 ppm); manage them by adjusting alkalinity to maintain LSI balance and prevent scale formation, only considering dilution for levels well above 1000 ppm.
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