Including filter system and high-performance Silica filter.
Silica is a naturally occurring mineral that can appear in tap water as dissolved silica or as silicates. It may not change flavor, but it can still cause headaches for Aurora homeowners — especially in our humid subtropical climate where hot-water use and evaporation are common. When water heats or evaporates, silica can leave behind stubborn, glassy deposits that are tougher to remove than ordinary mineral scale, producing more spotting on shower doors and glassware, buildup on fixtures, and reduced efficiency in hot-water appliances.
Because silica often stays dissolved and stable in water, it doesn’t respond the same way as calcium and magnesium to typical treatments. Standard water softeners target hardness minerals but generally aren’t the best fix for silica or silicates, and fine particulate silica behaves differently than the dissolved form. That means Aurora residents can still see persistent spotting and deposits even after other water quality issues have been addressed.
For most homes, the single most effective whole-house option for reducing silica is a reverse osmosis system. RO uses a semipermeable membrane to remove dissolved minerals, including silica and silicates, rather than relying on sediment or carbon alone. That membrane approach makes RO particularly effective at addressing the dissolved forms that can slip past standard filters when sized and installed correctly for your Aurora home.
A whole-house reverse osmosis installation for Aurora properties is usually paired with pretreatment to protect the membrane and maintain consistent performance. Sediment and carbon stages cut down on fouling and remove other contaminants that can interfere with the RO, while the RO membrane tackles dissolved silica; pretreatment also helps capture any fine particulate silica before it reaches the membrane. Mr. Pure Water can evaluate your plumbing and water profile in Aurora and recommend the right pretreatment and RO configuration for your household.