Frequently Asked Questions

Stainless steel systems resist corrosion and don't degrade over time like fiberglass, which can crack or weaken. They handle pressure fluctuations better and maintain structural integrity throughout the system's lifespan. Most filtration systems use fiberglass, but stainless steel construction provides longer durability without material breakdown affecting water quality.

Well water requires treatment for naturally occurring contaminants like iron, sulfur, manganese, and bacteria that aren't addressed by municipal treatment. City water already has disinfection but often needs filtration for chlorine, sediment, and taste issues. Well systems need testing for specific geological contaminants common to your area's aquifer.

Hydrogen sulfide gas from sulfur bacteria or decaying organic matter in the aquifer creates that distinctive odor. It's more common in deeper wells and areas with low oxygen levels underground. Sulfur removal systems eliminate the gas before it reaches your taps, not just mask the smell.

Test when you notice taste, odor, or staining changes, after heavy rainfall that may affect wells, or annually if using well water. New homeowners should test before moving in to identify existing issues. Testing reveals specific contaminants so treatment targets actual problems rather than guessing at solutions.

Testing identifies contaminants like hardness minerals, iron, sulfur, bacteria, chlorine, sediment, pH levels, and total dissolved solids. Analysis shows contamination sources—whether geological, bacterial, or treatment byproducts. Results determine which filtration or treatment methods will actually solve your specific water problems.

Calcium and magnesium minerals precipitate out when heated, forming scale deposits inside water heaters and pipes. Scale acts as insulation, forcing heaters to work harder and reducing efficiency by up to 30%. In pipes, buildup restricts flow and eventually causes blockages requiring replacement.

Standard softeners remove only dissolved ferrous iron in small amounts, not ferric iron or sulfur compounds. Wells with iron above 3 ppm or any sulfur need dedicated removal systems before softening. Trying to soften high-iron water clogs resin beds and causes system failure.

Iron from corroding pipes inside your home leaches into water after it passes through the meter. Older galvanized or steel pipes release iron as they deteriorate. Whole house filtration installed at your main line captures iron before it reaches fixtures and causes staining.

Sediment pre-filters typically need replacement every 3-6 months depending on water quality and household usage. Carbon filters last 6-12 months before absorption capacity drops. System inspections should happen annually to check pressure, flow rates, and verify all components function correctly.

Filtration removes particles, sediment, chlorine, and some chemicals through mechanical and carbon media. Purification uses additional stages like reverse osmosis or UV to eliminate dissolved solids, bacteria, viruses, and microscopic contaminants. Drinking water systems use purification; whole house systems typically use filtration.

Chloramines—chlorine combined with ammonia—resist standard carbon filtration better than free chlorine and create stronger taste. Older carbon media loses absorption capacity and stops removing chlorine effectively. Catalytic carbon or larger filter tanks with longer contact time remove chloramines municipal systems increasingly use.

Properly sized systems maintain pressure within 2-3 psi of incoming supply pressure. Undersized filters or clogged media cause noticeable pressure drops at fixtures. System design must account for peak flow demand—multiple showers and appliances running simultaneously—to avoid pressure loss during high usage.