How ViSTAT™ Works
ViSTAT™ represents the first commercial application of BioActive Technology's ablative polymer coating. Engineered to enhance conventional filter media and deliver superior performance.
See ViSTAT™ in Action
Performance MOAT vs. Alternatives
ViSTAT™ provides medical-grade protection without the massive CAPEX investment of UV-C or the system-straining pressure drop of HEPA filters.
| Feature | Performance | Unit Cost | Energy | Retrofitting |
|---|---|---|---|---|
| ViSTAT™ Coating | High, >85% VFE | $ | Low | None |
| HEPA | High | $$$ | High | Required |
| MERV 13 Filter | Medium | $$ | Medium | None |
| UV-C | Medium | $$$$ | Low | Required |
Efficiency Moat
>85% VFE
Single pass, high-speed airflow
Energy Optimized
Minimal
Additional Energy Expenditure
Scalable
No retrofit
Drop-in replacement
Negligible Toxins
<1 ppb TOC
Tested per EPA Method 415.3
Microbe Testing & Safety Profiling
Third-party tested and independently verified across multiple protocols.
Microbac
99.99%
SARS-CoV-2 Lab Study Result
SARS-CoV-2 · 15-minute exposure
MicroChem
99.96%
MS2 Bacteriophage Lab Study Result
MS2 Bacteriophage · 1-minute exposure
Nelson Labs
99.97%
Aerosol Challenge Performance
phiX174 · 20 LPM airflow
LMS / TRC
>85%
HVAC Filtration + Safety
MS2 · Up to 819 CFM · 0 ppb toxins
Computational Fluid Dynamics Modeling
Independent CFD simulations performed by FS Dynamics compare modeled particle transport behavior in coated and uncoated porous filter media.
CT-Based Geometry Reconstruction
Three-dimensional filter geometries were reconstructed from computed tomography (CT) scan DICOM files and processed using 3D Slicer v5.6.2 for precise geometry preparation.
High-Resolution Simulation
Simulations performed by FS Dynamics using Star-CCM+ v19.02.013 (Siemens PLM Software) with over 12.7 million control volumes, ensuring numerical consistency between coated and uncoated configurations.
Multi-Parameter Analysis
The CFD model evaluated velocity field distributions, individual particle trajectory behavior, flow tortuosity characteristics, traversal time analysis, and pressure drop predictions under matched boundary conditions.
Statistical Validation
Median values were calculated for tortuosity and traversal time distributions due to non-normal distribution characteristics, with particle retention percentages based on capture-to-release ratios.