Technology

Continuous improvement, 15 years of results

Today an estimated 2 billion cubic feet of air is purified using the proprietary technologies we have invested in - every hour. From tens of thousands of homes to the tallest building on earth, we're proud to be able to provide solutions that actually work in the real world. But what makes us different?

Natural Processes

We replicate outdoor purification processes indoors using advanced engineering. Our technology mimics processes such as natural dual polarity ionization. Effective against allergens, fine particulates (PM2.5), formaldehyde, microbes, air pollution, chemical gases, and more.†

Proven Results

Our technologies have undergone over a decade of rigorous testing and field studies by 3rd party laboratories, universities, commercial clients, and leading independent researchers.† Commercial clients include world renowned five star resorts, the tallest building in the world, professional sports teams, and hospitals.

Innovative Efficiency

Our extremely compact products cover much larger spaces than competing technologies. Low energy, little to no maintenance, and whisper quiet operation set our products apart. USA designed & assembled with the highest quality components (global and/or domestic) and technology available.

Air Quality is Complex - Some Challenges Require Different Solutions

Sadly there is no "silver bullet" product or technology when it comes to air quality. Each situation is very unique. Not only do we have to consider the types of contaminants (particulates, biological threats, odors, etc.) but the concentrations of those contaminants, the ongoing sources of those contaminants, as well as the unique goals and needs of the occupants. It's our opinion that Polar Ionization provides almost a complete coverage of airborne and surface based contaminants at a high cost efficiency, but other factors like removal speed or high odor content would mean another technology is needed.

Examples of Laboratory Studies

The proprietary technologies we have invested in are backed by 15 years of laboratory, university, and "real world" commercial studies. These tests are available upon request, and cover topics including SARS-CoV-2, MERS-CoV, VOCs, Molds, MRSA, O3, TBC, HCHO, RSP, NH3, H2S, and many more. Below are a few examples. Click on the image to see a larger preview or click the link to download a larger summary of each study.

Study Link

These example tests do not apply to all products sold on HypoAir.com Each Air Purifier or product uses different technologies for different applications.†

Air Quality is not "one size fits all"

Air quality is complex. No single technology or product is optimal for every situation or contaminant type (despite what some may claim). Our current array of Air Purifier products utilize between 1 and all 6 of the below technologies depending on the application. As such, not all referenced technologies are relevant for all products. Below is a simplified chart of some of the more common air purification technologies, and how we match up.

Filterless technologies

Polar ions

Germicidal UV

AHPCO®

Physical Filter Types

Washable

HEPA

Carbon

Toxic Microbial Overgrowth

The unchecked rise of mold and bacteria in enclosed spaces produces airborne toxins that overwhelm our natural defenses. Indoor environments lack the natural processes and competing microorganisms found outdoors, allowing water-based molds and bacteria to grow unchecked when moisture accumulates. Species like Aspergillus and Stachybotrys produce potent toxins that aerosolize, creating a concentrated "dose" effect within enclosed spaces that can overwhelm our bodies.

Airborne Penetrating Particles

Particulate matter between 2.5 and 0.1 microns can deeply infiltrate the lungs, carrying toxins and bypassing most filters. These Penetrating Particles, generated by things like indoor activities or fragments of mold spores, float in the air for longer periods of time. If they reach our lungs they can deposit toxic hitchhikers such as mycotoxins directly into our bloodstream. Unlike larger particles AND smaller particles, they’re not easily captured by standard filters including HEPA.

Harmful Gas Concentrations

Every coating, cleaner, and cooked meal can release compounds like VOCs. These chemical glasses are often harmless in the open air but can reach potent toxicity when trapped inside our walls. Without natural mechanisms to break down, they accumulate to a level that can disrupt cellular health and trigger systemic reactions. Controlling these gas concentrations indoors through source control or purification is essential for maintaining optimal function and minimizing cumulative toxic load.

Large Particulates

(Greater than 2.5 microns)
Although airborne particles like dust, pollen, and debris, with diameters greater than 2.5 microns, are less likely to penetrate deeply into lung tissue, they are abundant in indoor environments and can still cause respiratory irritation and exacerbate allergy symptoms. Unlike smaller particles, large particulates are generally more easily captured by standard air filtration systems but can accumulate on surfaces, creating additional reservoirs of allergens and irritants in enclosed spaces.

Ultra-fine Particulates

(Less than 0.1 microns)

These sub-micron particulates, smaller than 0.1 microns can remain suspended in the air for long periods of time. However, unlike Penetrating Particles (2.5-0.1 microns), these ultra-fine particles are more readily captured even by lower-efficiency filters due to Brownian motion—a phenomenon where tiny particles move erratically as they collide with air molecules, enhancing their chances of hitting and adhering to filter surfaces.

Viruses & Bacteria

Viruses and non-water-based bacteria are airborne pathogens that can spread readily in indoor environments where natural outdoor germicidal processes are absent. While our primary focus is on water-based microbes, as they present a disproportionately greater challenge in most residential settings, these non-water-based pathogens are still significant—particularly in shared living spaces. Unlike water-based microbes, these organisms do not depend on moisture for survival and can persist for extended periods on surfaces and in the air within enclosed environments.

Odors

Odors encompass a wide range, but we distinguish generally harmless odors from those that might indicate potential issues, such as musty smells associated with mold or the presence of harmful gases. Unwanted but benign odors can originate from natural sources, like cooking, pets, or body odors, while synthetic fragrances—such as scented cleaning products—are classified within the harmful gas category. Since individual sensitivity to odors varies and our nose often goes blind, relying on scent alone is typically not an accurate measure of air quality. Without proper ventilation or purification, these odors can accumulate indoors, and in some cases, may trigger reactions in individuals who are particularly sensitive.

4 Environmental Factors we consider when recommending tools for healthy air.

Location

Focuses on external environmental factors like regional pollution, topography, neighbors and climate.

Structure

Examines building history, type, construction materials, and systems that affect air quality.

Activities

Considers current and future indoor activities that affect air quality in a positive or negative way, including various factors such as types of products used (i.e. cleaning products) and moisture management.

Occupants

Evaluates individual health concerns, preferences, toxic history, allergies, and genetic predispositions of occupants (including pets!).

The Relative Size Of Particles

We know there are a lot of claims out there and a LOT of air purifiers that don't work. Many if not most of our customers have been let down by another company that is spending a lot of money on marketing, but not as much on hard science. We're happy to answer your questions related to any specific product or technology.

AHPCO Technology's History:

NASA’s answer to the air quality challenges of deep space was a technology that utilizes Photocatalytic Oxidation (PCO). It had to be compact, little to no maintenance, energy efficient, and had to actively eliminate a broad spectrum of contaminants†. We have invested in and greatly improved the original NASA PCO with the Advanced Hydrated PhotoCatalytic Oxidation (AHPCO®) nanotechnology.

How It Works

UVC light destroys microorganisms as they pass by. Oxidizing Catalytic Molecules are then formed from water vapor when the UVC rays excite the AHPCO nanometal Catalyst. These Polarized Catalytic Molecules are then proactively dispersed throughout the ambient air.

Catalytic Molecules actively seek out pollutants and break them apart at a molecular level. Contaminants are neutralized as they are destroyed. Oxidizing Catalytic Molecules are more effective at neutralizing VOCs, while Polarized Catalytic Molecules have a clustering effect that is extremely effective at causing particulates to become heavy and drop out of the air.

Catalytic molecules and Ozone:

Indoor Air Quality (IAQ) solutions that only use ozone must produce large amounts of ozone to be effective at all. These high ozone levels can become irritating, odorous, dangerous, and degrading on equipment. Hypoallergenic Air units are not ozone generators. As you can see in the chart from a third party testing agency (CMA), our technology is able to quickly and effectively reduce large amounts of VOCs without increasing ambient ozone.

Zero parts per billion by volume (ppbv) of Ozone were present in the ambient air before and during use of our technology.