Advanced Environmental Test Chamber for Airborne Pathogen & Infection Control Research (1060 cubic feet)
Purpose-Built. Regulatory-Ready. Scientifically Proven.
Our 30m3 chamber ( 1060ft3) a.k.a. The George Stokes Chamber.
At Airmid Healthgroup, our custom-engineered test chambers lead the world in airborne pathogen and antimicrobial surface technology validation. Designed by aerobiologists and infection control experts, these chambers simulate real-world environments under precisely controlled conditions—making them ideal for testing air disinfection systems, filtration technologies, and cleaning protocols.
When global brands need answers, they test here.
Why Airmid’s Chambers Are Best in Class
✅ Custom-Built for Aerosol Studies
From MS2 to SARS-CoV-2 (BSL-2) [see FAQ on Biosafety Levels], our chambers enable accurate dispersion, exposure, and sampling across complex indoor environments.
✅ Also Configured for Surface Pathogen and Decontamination Studies
From MRSA and C. difficile to Bacillus atrophaeus spores, our chambers support standardized inoculation, surface recovery, and log reduction analysis under real-world environmental conditions.
✅ Multi-Zone Flexibility, Real-World Simulation
Replicate hospital rooms, classrooms, transport cabins, or residential spaces with control over ACH, temperature, humidity, furnishings, and airflow dynamics.
✅ Regulatory & Standards-Ready
Test to the requirements of
- ISO
- IEC
- ASTM
- ASHRAE (including ASHRAE 241, ASHRAE 185),
- AHAM AC-4 and AHAM AC-5
We can also design custom protocols and bespoke bioaerosl studies with scientific rigor.
✅ GLP-Capable and ISO 17025-Aligned Facility
For claims that require regulatory precision and documented reliability.
See FAQ on GLP and ISO 17025
✅ Operated by Leading Scientists
Not just run by technicians—designed and operated by microbiologists and exposure scientists with peer-reviewed publications and global reputations.
Test Chamber Specifications at a Glance
Feature | Specification |
Volume | Configurable from 0.5 m³ to 27 m³ |
Air Handling | HEPA-filtered air, adjustable ACH (1–12), laminar or turbulent flow |
Environmental Control | Temperature: 15–35°C |
Sampling Capabilities | Impactors, slit-to-agar samplers, optical particle counters, viability PCR |
Aerosol Generation | Collison nebulizers, vibrating mesh nebulizers, dry powder dispersers |
Biological Models | MS2, Phi6, Influenza, hCoV-229E, SARS-CoV-2, S. aureus, Legionella, Aspergillus |
Surface Testing | Uniform deposition, abrasion simulation, log reduction analysis |
Applications
- ✅ Air purifiers, filters, and HVAC systems
- ✅ UV-C and plasma disinfection devices
- ✅ Antimicrobial coatings and textiles
- ✅ Cleaning agents and protocols
- ✅ PPE and barrier technology
- ✅ Ventilation strategy testing (per ASHRAE 241)
Used by the Best. Trusted Worldwide.
Our clients include major consumer brands, medtech leaders, global regulators, and emerging innovators. From claim substantiation to product development, we’ve supported 150+ regulatory submissions and peer-reviewed publications.
Whether you’re submitting to regulators or launching to market, Airmid Healthgroup is your trusted partner in scientifically validating infection control technologies.
Testimonial
Airmid helped us validate our product to international standards, fast, credible, and scientifically best in class.
Download a Sample Report
Related Services
We can help you overcome the Challenges in Air Filtration Product Development and marketing
https://airmidhealthgroup.com/industries-served-airmid/room-air-cleaners.html
The AHAM AC-5 (Microbial Clean Air Delivery Rate) test is the industry standard for evaluating the airborne bacteria and virus removal performance of portable air purifiers
https://airmidhealthgroup.com/aham-ac-5-testing-microbial-cadr-certification.html
At Airmid Health Labs, we provide comprehensive validation studies for surface technologies, ensuring their effectiveness in both laboratory conditions and real-world environments where they are intended for use.
Related Resources
📰 Related News & Insights
1. Advancing the Science of UV Disinfection: Insights from the IUVA & NIST Workshop
How Airmid’s bioaerosol chambers support real-world UV efficacy validation and standards development.
🔗 https://airmidhealthgroup.com/news/uv-disinfection-iuva-nist-workshop.html
2. FAQ: ISO 16000-36:2018 Testing for Air Purifiers
What manufacturers need to know about testing airborne bacteria reduction in chamber-based studies.
🔗 https://airmidhealthgroup.com/news/iso-16000-36-air-purifiers-testing.html
3. Reflections from the NADCA Annual Meeting: Science, Standards & the Spirit of the Industry
The growing role of science-backed testing and HVAC standards for indoor air quality improvements
🔗 https://airmidhealthgroup.com/news/nadca-annual-meeting-2025.html
Related Case Studies
1. Study: Airborne Exposures to Allergen and Particles With and Without Carpeting
This study challenges the assumption that hard floors are always preferable for allergen avoidance, showing that certain carpets can act as reservoirs that reduce airborne allergen exposure compared to hard flooring.
2. Surface Decontamination Validation of a Touchless Hand Dryer with Antimicrobial Coating
How Airmid designed a customized test protocol simulating real-world washroom use to validate the efficacy of a surface coating on a commercial hand dryer against MRSA and E. coli.
https://airmidhealthgroup.com/airmid-healthgroup-contributes-to-study-on-hand-washing-drying-and-indoor-air-quality.html
Helpful Search Terms
Environmental test chamber for airborne pathogens, aerosol testing chamber for infection control; airborne pathogen removal validation facility; antimicrobial surface testing in controlled environments; GLP-compliant bioaerosol exposure chamber; infection control efficacy testing laboratory, real-world simulation chamber for HVAC testing; virus and bacteria aerosol survival studies; ISO 16000-36 air purifier chamber testing; ASHRAE 241 ventilation system validation
Key Words
Bioaerosol; pathogen; infection control; chamber; GLP; antimicrobial; airborne; ISO testing; environmental; virology
Why do we call it the George Stokes Chamber?
George Gabriel Stokes, was an Irish mathematician and physicist. Born in County Sligo, Ireland, Stokes spent all of his career at the University of Cambridge, where he was the Lucasian Professor of Mathematics from 1849 until his death in 1903. As a physicist, Stokes made seminal contributions to fluid mechanics, including the Navier–Stokes equations; and to physical optics, with notable works on polarisation and fluorescence.
As a mathematician, he popularised “Stokes’ theorem” in vector calculus and contributed to the theory of asymptotic expansions. Stokes, along with Felix Hoppe-Seyler, first demonstrated the oxygen transport function of haemoglobin, and showed colour changes produced by the aeration of haemoglobin solutions.
Stokes’s work on fluid motion and viscosity led to his calculating the terminal velocity for a sphere falling in a viscous medium.
This became known as Stokes’ law. He derived an expression for the frictional force (also called drag force) exerted on spherical objects with very small Reynolds numbers.
https://en.wikipedia.org/wiki/Sir_George_Stokes,_1st_Baronet