Your air filter was designed in 1942.
We made it electric.
HEPA filtration, electrically enhanced. A conductive graphene coating on standard HEPA media adds electrostatic capture you can switch on.
Same slot, same swap, one plug.
A Filter Never Gets Better Than the Day It Was Made
Air pollution contributed to 7.9 million deaths in 2023, the second largest risk factor for death worldwide (State of Global Air, 2025). The technology guarding indoor air has not fundamentally changed in eighty years.
Viral Diseases
Respiratory illnesses spread rapidly through indoor air, overwhelming healthcare systems.
Cardiovascular Impact
Fine particulate exposure is linked to heart attack, stroke, and heart failure. Short-term spikes can trigger events in susceptible people (U.S. EPA).
Health-Critical Buildings
Americans spend about 90% of their time indoors, where pollutant levels often run two to five times higher than outdoors (U.S. EPA). Senior living, clinics, and schools house the people least able to absorb that exposure.
We Make the Filter Itself an Electrode
Pristine graphene, laid onto the same glass fiber HEPA already runs on, in one added step of the process that forms the mat.
On-Demand Electric Field
Unlike traditional HEPA filters where static charges fade over time, our graphene coating lets you apply an electric field on command. Capture becomes a setting, not a property fixed at manufacture.
Capture Without the Airflow Penalty
A mechanical filter buys capture with finer, denser fibers, and the fan pays for it in pressure drop. An electric field adds capture without changing the medium at all.
Drop-In Integration
A HEPA-substrate drop-in upgrade for the filter slot the building already has. No HVAC changes. It plugs into a standard outlet and draws less power than a night light.
Off Means Ordinary HEPA
Cut the power and the medium is still a standard mechanical HEPA filter. The electrical layer adds capture on top. It is never the thing holding the floor.
For eighty years, this was folded paper.
HEPA filtration, electrically enhanced.
Capture Is a Setting, Not a Property
You have been raising the field since the top of this page. This is the switch itself. Flip it and watch what the energized lattice does to the air moving through.
Single-Fiber Capture Model
First-principles modelAt 0.18 µm, the model says
Drag the size dial away from 0.18 microns and watch the gap close. The field is not a general improvement. It is a targeted one, and it targets the one size mechanical filtration cannot.
A physics prediction of the mechanism, not a measured product spec.
What this model is, and what it is not
Single-fiber filtration theory on our own measured fiber: Kuwabara flow around a 0.65 micron borosilicate glass fiber, Lee-Liu and Kirsch-Stechkina mechanical capture, and electrostatic capture in the conductive-collector form given by Brown, Air Filtration (1993), Eqs. 6.60 to 6.61. The field-on case assumes a small upstream charger, which is the architecture the physics points at. The mechanical curve is validated on its own against a real HEPA penetration curve before any electrostatics are added. The same code runs the aerosol behind this page.
Every number this panel shows is what the model produces for a stated medium at a stated field. None of it is a measured AeroGraphiX filter result and none of it should be quoted as one. What the applied voltage delivers on a real coated mat is the open measurement, and it is a bench question rather than a theory question.
Strongest Where HEPA Is Weakest
Every mechanical filter has one particle size it is worst at. For our fiber that is near 0.18 microns, and that is the size the applied field does the most for. The two mechanisms cover for each other.
Pristine Graphene
Using pristine graphene (not graphene oxide) for maximum conductivity. SEM imaging confirms uniform coating on glass fibers.
Scalable Manufacturing
Just three ingredients: graphite, heptane, water. Graphene self-assembles onto fibers at room temperature. No CVD, no vacuum deposition.
The Market Is Big. Our Edge Is How We Land It.
We sell through the HVAC contractors and supply houses who already service health-critical buildings, so the relationship is bought, not built. (TAM: Grand View Research, 2025. Facility count: Census CBP, CDC, NCES.)
Reached through the HVAC contractors who already service them. First paid pilots are what we are working toward.
Dental practices, diagnostic labs, and schools, plus monitoring. Stickier accounts, higher value per site.
Group purchasing organizations, where one contract can reach many facilities.
Programs and Awards
The programs that backed the venture and the awards its work has earned.
Leadership Team
The materials scientists who make the coating, the co-inventor of the chemistry, and the people carrying it to market.
Deep Shikha Srivastava
Chief Executive Officer
PhD candidate in polymer chemistry and materials science at UConn, expected 2027. Expertise in sensors, conducting composites, and aerogels. Leads strategy, fundraising, and go to market, and co-leads R&D.
Dr. Douglas Adamson
Co-Founder & Chief Scientific Advisor
Professor of Chemistry, UConn Institute of Materials Science. Pioneer of pristine graphene exfoliation and the SITM process behind our coating. Twenty years of graphene research.
Robert Minh Lu Williams
Chief Scientific Officer & Co-Inventor
Co-invented the graphene-coated HEPA technology as an MSE undergraduate at UConn. Now pursuing medical school with continued expertise in electrochemistry and materials characterization.
Brenden Ferland
Chief Technology Officer
PhD candidate in polymer science at UConn, expected 2027. Co-leads R&D and owns the company's technical and digital infrastructure, customer discovery, and market research.
What We Are Looking For
AeroGraphiX, Inc. is a Delaware C corporation built on University of Connecticut research. Two asks right now: a regulatory advisor who has run a HEPA certification battery, and introductions to HVAC contractors serving health-critical facilities. If that is you, or you know who it is, let's talk.
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