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Intelligent Filter Performance Monitoring
Designed to make filter performance visible and actionable throughout its lifespan.
The Overlooked Reality of Shower Water Exposure
Many only consider water quality when they drink it. However, the most significant exposure often happens in the shower - where heated, chemically treated water and steam interact daily with skin, hair, and body.
Water conditions vary by location, infrastructure, and plumbing. Our focus is addressing common, high-impact contaminants found across U.S. systems.
Cause:
Over 98% of U.S. water treatment systems use chlorine or chloramine to disinfect water. Chlorine volatilizes easily in hot water while chloramine is more chemically stable and persists longer through distribution systems.
Effect:
Both compounds remain chemically active at the showerhead and are absorbed through the skin, hair, and eyes. Furthermore, when that water is heated in a shower, disinfectant residuals enter the air as steam where they are inhaled, and contact your entire body.
So what?
Repeated exposure can disrupt the skin’s natural lipid barrier and the protein structure of hair fibers. Over time, this can lead to dry, irritated, discolored, and acne prone skin as well as dull, damaged, and frizzy hair, with faster color fading. It can also increase the sensitivity of the eyes and scalp potentially leading to hair loss.
Cause:
When chlorine or chloramine reacts with organic matter in water, it forms disinfection by-products (DBPs) such as trihalomethanes (THMs). These compounds are classified as volatile organic compounds, meaning they are highly reactive, and readily transfer from water into air - especially when water is heated and agitated.
Effect:
During showering, hot water and turbulence causes the release of VOCs into the air. This creates a combined inhalation and dermal exposure pathway, where they're inhaled and absorbed into the skin - a scenario not accounted for in treatment standards, which is based on ingestion.
So what?
Inhalation is a faster and more direct exposure route than drinking water. Over time, repeated exposure to volatile disinfection by-products during showers can contribute to respiratory irritation, headaches, increased overall chemical load, and inflammation particularly in enclosed bathrooms with limited ventilation.
Cause:
After leaving the treatment plant, water travels through miles of aging infrastructure and household plumbing. During this journey, it can pick up sediment, rust, corrosion scale, and trace metals such as iron, manganese, and lead, in both particulate, and dissolved form.
Effect:
These physical contaminants reach your showerhead and directly contact your skin, hair, and eyes. While not typically harmful in small amounts, they can cause skin irritation, leave residue, affect hair texture, and reduce the effectiveness of soaps and shampoos. Some particulates may also exacerbate sensitivities or allergies.
So what?
Water meeting safety standards at the plant can still degrade in quality by the time it reaches your home. Point-of-use filtration provides a critical last-mile defense, reducing particulate load and improving water clarity, odor, and feel - delivering a cleaner, more comfortable, and health-conscience shower experience.
Cause:
Municipal water chemistry fluctuates daily and seasonally due to changes in source water quality, demand, treatment methods, temperature, and distribution system variables. Parameters like disinfectant residuals, pH, mineral content, and dissolved solids can vary significantly over time.
Effect:
These fluctuations affect the chemical environment your exposed to during showers. Variable water chemistry can lead to inconsistent sensations such as dryness, irritation, residue buildup, and altered effectiveness of soaps and shampoos.
So what?
Even when water meets safety standards, daily variations mean your shower water quality isn’t uniform. Point-of-use filtration acts as a buffer, stabilizing water chemistry to minimize unexpected irritation or changes in hair and skin.
Seem Familiar?
If any of these sound familiar, your shower water may be the reason.
The Science Behind The System
Interact with tabs below to learn more.
Calcium Sulfite
Chlorine is a highly reactive disinfectant added to your water supply to kill bacteria. While it's very effective at that job, it creates adverse effects at the point of use.
Calcium sulfite targets free chlorine - neutralizing it on contact before it reaches your skin, hair, and lungs. It does this through a fast chemical reaction that converts reactive chlorine into a stable, harmless compound (chlorides). The same oxidizing property of chlorine that kills bacteria in water treatment is what strips moisture from your skin, breaks down the protein structure of your hair, and releases irritating vapors into your shower steam. Calcium sulfite stops that process at the source.
This stage also contributes to chloramine reduction - a secondary disinfectant increasingly used by water utilities that is harder to eliminate than free chlorine. In combination with the catalytic carbon stage, the two media create a layered approach that handles both well.
ACF & Catalytic Carbon
Chloramine is what water utilities use when they want chlorine's disinfection power with less evaporation. It stays dissolved in the water longer and is significantly harder to remove than free chlorine. Chloramine is a disinfectant that is getting more and more common in US water treatment.
Catalytic carbon is a specialized form of carbon with a chemically modified surface engineered to be reactive enough to break the nitrogen-chlorine bond at the core of chloramine. Where standard carbon would let chloramine pass largely intact, the altered surface drives a reaction that breaks it apart. It acts as a catalyst - meaning it enables that reaction repeatedly without being consumed in the process.
Activated carbon fiber works through adsorption - its surface is covered in billions of microscopic pores that chemically attract and trap contaminants as water passes through. Trace chemicals, organic residues, disinfection byproducts, and odor compounds get captured here.
The blend of ACF and catalytic carbon cover both the broad chemical landscape and specifically target chloramine. Working alongside calcium sulfite and KDF-55, the system creates three overlapping chloramine removal pathways - an approach substantially more effective than any single stage acting alone.
KDF-55
Heavy metals like lead, mercury, and chromium can't be filtered out the way you'd filter dirt. They're dissolved in the water at a molecular level - invisible, and small enough to pass straight through most barriers.
KDF-55 is a high-purity copper-zinc alloy that solves this through electrochemistry. When water passes over the alloy, the two metals create a natural electrical exchange - transferring electrons to dissolved metal ions in the water. That electron transfer changes the metal's chemistry entirely, converting it from a soluble ion into an insoluble solid particle that precipitates out and is physically trapped within the media. Lead, mercury, nickel, chromium, cadmium, and iron all undergo the same transformation.
KDF-55 also reacts with chlorine and chloramine through the same electrochemical pathway, reinforcing the removal work of the other media. And because the copper-zinc surface creates conditions that inhibit microbial growth, it helps prevent biofilm from developing inside the filter housing and showerhead - something particularly relevant in the warm, humid environment of a daily shower.
Polyphosphate
The white buildup on your showerhead and fixtures isn't just a cleaning inconvenience - the same minerals depositing on your fixtures are depositing on your hair shaft with every shower.
Hard water contains dissolved calcium and magnesium. When water slows down, heats up, or evaporates - those minerals crystallize out of solution and stick to whatever surface they're in contact with. On fixtures, that's limescale; on hair, it's a coating that accumulates over time, leaving strands feeling rough, dull, and more prone to breakage.
Polyphosphate binds to calcium and magnesium at a molecular level, keeping them suspended in solution rather than letting them crystallize. The result is softer-feeling water and reduced limescale deposits on your fixtures, and hair.
Chlorine is a highly reactive disinfectant added to your water supply to kill bacteria. While it's very effective at that job, it creates adverse effects at the point of use.
Calcium sulfite targets free chlorine - neutralizing it on contact before it reaches your skin, hair, and lungs. It does this through a fast chemical reaction that converts reactive chlorine into a stable, harmless compound (chlorides). The same oxidizing property of chlorine that kills bacteria in water treatment is what strips moisture from your skin, breaks down the protein structure of your hair, and releases irritating vapors into your shower steam. Calcium sulfite stops that process at the source.
This stage also contributes to chloramine reduction - a secondary disinfectant increasingly used by water utilities that is harder to eliminate than free chlorine. In combination with the catalytic carbon stage, the two media create a layered approach that handles both well.
Chloramine is what water utilities use when they want chlorine's disinfection power with less evaporation. It stays dissolved in the water longer and is significantly harder to remove than free chlorine. Chloramine is a disinfectant that is getting more and more common in US water treatment.
Catalytic carbon is a specialized form of carbon with a chemically modified surface engineered to be reactive enough to break the nitrogen-chlorine bond at the core of chloramine. Where standard carbon would let chloramine pass largely intact, the altered surface drives a reaction that breaks it apart. It acts as a catalyst - meaning it enables that reaction repeatedly without being consumed in the process.
Activated carbon fiber works through adsorption - its surface is covered in billions of microscopic pores that chemically attract and trap contaminants as water passes through. Trace chemicals, organic residues, disinfection byproducts, and odor compounds get captured here.
The blend of ACF and catalytic carbon cover both the broad chemical landscape and specifically target chloramine. Working alongside calcium sulfite and KDF-55, the system creates three overlapping chloramine removal pathways - an approach substantially more effective than any single stage acting alone.
Heavy metals like lead, mercury, and chromium can't be filtered out the way you'd filter dirt. They're dissolved in the water at a molecular level - invisible, and small enough to pass straight through most barriers.
KDF-55 is a high-purity copper-zinc alloy that solves this through electrochemistry. When water passes over the alloy, the two metals create a natural electrical exchange - transferring electrons to dissolved metal ions in the water. That electron transfer changes the metal's chemistry entirely, converting it from a soluble ion into an insoluble solid particle that precipitates out and is physically trapped within the media. Lead, mercury, nickel, chromium, cadmium, and iron all undergo the same transformation.
KDF-55 also reacts with chlorine and chloramine through the same electrochemical pathway, reinforcing the removal work of the other media. And because the copper-zinc surface creates conditions that inhibit microbial growth, it helps prevent biofilm from developing inside the filter housing and showerhead - something particularly relevant in the warm, humid environment of a daily shower.
The white buildup on your showerhead and fixtures isn't just a cleaning inconvenience - the same minerals depositing on your fixtures are depositing on your hair shaft with every shower.
Hard water contains dissolved calcium and magnesium. When water slows down, heats up, or evaporates - those minerals crystallize out of solution and stick to whatever surface they're in contact with. On fixtures, that's limescale; on hair, it's a coating that accumulates over time, leaving strands feeling rough, dull, and more prone to breakage.
Polyphosphate binds to calcium and magnesium at a molecular level, keeping them suspended in solution rather than letting them crystallize. The result is softer-feeling water and reduced limescale deposits on your fixtures, and hair.
Industry Leading Performance
Lab-tested results across the major contaminant categories.
99.5%
Chlorine Reduction
98.2%
Chloramine Reduction
97.8%
Heavy Metal Removal
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