The performance numbers — 100× lower resistance, 96× higher capacitance, +19% polymer strength — don't happen by accident. They're the result of six distinct technical advantages built into Flexiphene™ at the molecular level. This is the science behind why it works.
U.S. Patents 10,049,783 / 11,961,630 B2. Published in Electroanalysis (2020). ASTM-tested mechanical data.
Standard nanocarbon dispersions fail for predictable, correctable reasons. Flexiphene™ addresses each one with a specific technical solution — and then validates it with independent data.
The foundational advantage. No surfactant molecules coating nanocarbon surfaces means no insulating barriers, no matrix contamination, and no property losses from day one.
Deep dive →High-aspect-ratio nanocarbon structures are never acid-damaged. Intact tubes and sheets mean superior load transfer, longer electron pathways, and more surface area per gram.
Deep dive →Nanocarbon bridges maintain uninterrupted conductivity throughout the matrix. The direct explanation for 100× lower resistance in films and 96× higher capacitance in electrodes.
Deep dive →Up to 10× higher interfacial activity than standard oxidized CNTs — achieved without structural damage. More functional groups mean more bonding sites and more reinforcement per gram.
Deep dive →Post-processing reduction restores near-pristine conductivity when maximum electrical performance is required — without sacrificing the processability benefits of the oxide form.
Deep dive →Validated in thermoplastics, thermosets, elastomers, and coatings. PA 66, epoxy, polyurethane, PEEK, silicone — Flexiphene™ integrates without requiring chemistry changes to your existing process.
Deep dive →Six mechanisms, two independently validated datasets. Every number below is traceable to a specific published source.
| Property | Flexiphene™ | Standard | Δ |
|---|---|---|---|
| Resistance | 0.09 MΩ | 10+ MΩ | 100× ↓ |
| Capacitance | 50 µF | 0.52 µF | 96× ↑ |
| Drift Rate | 20 µV/s | 1900 µV/s | 95× ↓ |
| 4-Month Retention | 83% | Degrades | Proven |
Source: Noell et al., Electroanalysis (2020). NASA JPL peer-reviewed evaluation.
Conductive Films application page →| Property | Baseline | + Flexiphene™ | Δ |
|---|---|---|---|
| Tensile Strength | 100% | Enhanced | +19.0% |
| Flexural Modulus | 100% | Enhanced | +18.9% |
| Tensile Modulus | 100% | Enhanced | +16.0% |
| Agglomeration | — | None | SEM verified |
Type V tensile (10 mm/min), ASTM D790 flexural (14:1 span, 1 mm/min). PA 66 at 1 wt.%.
Polymer Reinforcement application page →The novel GO-CNT based SC-ISEs were the most stable as demonstrated by their large capacitance, low resistance, and reproducible behavior.
Dr. Aaron C. Noell, Senior Research Scientist
NASA Jet Propulsion Laboratory · California Institute of Technology
Electroanalysis (2020) · Peer-reviewed · Space-mission instrumentation evaluation
The six mechanisms aren't independent advantages — they reinforce each other. Understanding how they interconnect explains why Flexiphene™ achieves results that no single-improvement approach can match.
Each compromise leads to the next. The system fails together.
Each advantage enables the next. Performance compounds.
Each page below covers a specific mechanism in depth — what the problem is, how Flexiphene™ solves it, and the measured evidence that it works.
Request a free sample kit with the full technical datasheet. Our materials scientists will match you with the right formulation for your application and support your evaluation from day one.