When there are no second chances — no field service, no recalibration, no recovery — the materials you choose must perform the first time and keep performing for months. Flexiphene™ is the only nanocarbon dispersion with published NASA JPL validation data, demonstrating 4-month stability, 96× higher capacitance, and 95× lower signal drift for space-mission instrumentation.
Published: Noell et al., Electroanalysis (2020). NASA JPL / Caltech. U.S. Patents 10,049,783 / 11,961,630 B2.
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
Published: Electroanalysis (2020) · Space-mission instrumentation evaluation · Peer-reviewed
Space and defense applications operate under constraints that terrestrial applications don't face. The material you choose must work — the first time, every time, without the possibility of intervention. That's why NASA chose Flexiphene™ technology for evaluation, and why the published data covers long-duration stability rather than just initial performance.
In-situ chemical analysis instruments for Mars, Europa, and other planetary environments. The original NASA JPL application — miniature ion-selective electrodes for detecting ions in extraterrestrial environments without ground recalibration.
Conductive coatings and electrode systems for satellite payloads requiring long service life, stable performance through thermal cycling, and zero contamination outgassing in vacuum.
Nanocarbon-reinforced structural polymer components for launch vehicle fairings, interstages, and payload adapters requiring maximum specific strength and stiffness at minimum mass.
Sensors and structural materials for precision-guided munitions, UAV systems, and reconnaissance platforms where long operational duration and harsh environments demand materials with proven long-term stability data.
Electrochemical sensors for atmospheric research, oceanographic monitoring, and field-deployed analytical instruments that must operate autonomously for months without servicing or recalibration.
Embedded sensors for nuclear facilities, deep-sea platforms, and arctic research stations where access for maintenance is limited and sensor stability over months or years is a design requirement.
Unlike materials companies that cite internal testing or theoretical performance, Flexiphene™ technology is backed by an independent, peer-reviewed publication from one of the world's most credible research institutions. Every number we cite can be traced to a published paper you can read and cite yourself.
Noell et al., Electroanalysis (2020). Peer-reviewed evaluation of GO-CNT SC-ISEs at NASA JPL for space-mission instrumentation. The primary source for all electrical performance data cited on this site.
JPL, managed by Caltech for NASA, is responsible for some of humanity's most ambitious space missions. Their materials qualification standards are among the most stringent on Earth. Flexiphene™ met them.
Polymer reinforcement data is from ASTM-standard mechanical testing: Type V tensile specimens at 10 mm/min and ASTM D790 flexural testing. Independent, reproducible test protocols.
Scanning electron microscopy imaging confirms zero agglomeration in Flexiphene™-reinforced polymer composites. Visual confirmation that every particle is active — not theoretical.
U.S. Patents 10,049,783 and 11,961,630 B2, with others pending. The technology is protected, the science is published, and the intellectual property is defensible.
CTI Materials / CheapTubes Inc. has been supplying advanced nanocarbon materials to research and industry for over 20 years. Flexiphene™ is not a startup experiment — it's a proven platform from an established supplier.
Request a sample kit with the full NASA JPL dataset and technical datasheet. We support program evaluations from initial material review through flight qualification — with the published data to back every performance claim.