Flexiphene™ produces conductive films and coatings with 0.09 MΩ resistance — versus 10+ MΩ with standard nanocarbon dispersions. That's 100× more conductive, 96× higher capacitance, and 95× more stable signal drift. Validated at NASA's Jet Propulsion Laboratory. Free sample available.
U.S. Patents 10,049,783 / 11,961,630 B2. Data published in Electroanalysis (2020) — NASA JPL evaluation.
These numbers come from actual measurements made at NASA JPL — not theoretical predictions. Every data point is from the peer-reviewed 2020 Electroanalysis publication evaluating GO-CNT nanocarbon films for space mission instrumentation.
| Electrical Property | Standard Nanocarbon Film | Flexiphene™ Film | Improvement |
|---|---|---|---|
| Electrical Resistance | 10+ MΩ | 0.09 ± 0.03 MΩ | 100× Lower |
| Capacitance | 0.52 µF | 50 µF | 96× Higher |
| EMF Drift Rate | 1900 µV/s | 20 ± 8 µV/s | 95× More Stable |
| Long-Term Retention (4 mo.) | Degrades | 83% retained | Proven stable |
| Batch Reproducibility | Variable | 90% yield | Highest |
| Surfactant Contamination | Present | None | Clean interface |
Source: Noell et al., Electroanalysis (2020). NASA JPL evaluation of GO-CNT solid-contact ion-selective electrodes for space mission instrumentation. Peer-reviewed.
Conductivity in nanocarbon films depends on uninterrupted electron pathways. Anything that interrupts those pathways — surfactant residues, agglomerate voids, damaged nanocarbon structures — directly degrades performance.
Ion-selective electrodes, glucose sensors, and environmental monitors requiring low resistance and stable signal over extended measurement periods — including in-situ field deployment.
Lightweight conductive coatings for electronics enclosures, flexible PCB shielding, and aerospace avionics where high shielding effectiveness at minimal film thickness is critical.
Electrostatic dissipative (ESD) coatings for electronics packaging, cleanroom flooring, and semiconductor fabrication environments requiring precisely controlled surface resistivity.
Flexible, optically transparent conductive films for OPV solar cells, touch sensors, wearable electronics, and displays where ITO alternatives are required for flexibility or cost.
Thin-film heating elements with uniform resistance distribution for de-icing, medical warming devices, and precision temperature control in aerospace and industrial applications.
Multifunctional coatings combining conductivity with corrosion protection on metal substrates — particularly for marine, aerospace, and oil & gas applications demanding long service life.
Request a free sample kit with the NASA JPL dataset and full technical specifications. Our team will support your first deposition trials from day one.