CNT/Polymer Applications

The outstanding properties of carbon nanotubes makes them of potential use in controlling other nanoscale structures, which suggests they will have an important role in Nanotechnology Engineering. On this page you find current and potential applications of carbon nanotubes. 


World’s First Carbon Nanotube Reinforced Polyurethane Wind Blades (by M. R. LOOS et al.)


[read the full story]

Super-strong body armour in sight

A new type of carbon fibre (see Fig. below), developed at the University of Cambridge, could be woven into super-strong body armour for the military and law enforcement.


The researchers say their material is already several times stronger, tougher and stiffer than fibres currently used to make protective armour.
The lightweight fibre, made up of millions of tiny carbon nanotubes, is starting to reveal exciting properties. [read more]



Carbon Nanotubes Help to Fight Fire (Audi A4) [read more]

BASF's carbon nanotubes helped create an anti-static part for an Audi fuel filter line (Source: BASF)

Car fuel line using CNTs [read more] [ Watch video!!!]


Car's interior illumination [read more]



CNTs take flight in aerobatic aircraft [read more]



World's first yacht built using CNTs [read more]



Vellozi: hybrid electric car [read more]



Adidas Shoes [read more]



Flexible circuits [read more]




NanoTech Shaft containing CNTs - Golf [read more]



Cup Stack Carbon Nanotube [read more]




Badminton Racket [read more]


Tennis Racket [read more]



Companies offering this rackets include: Yonex® NanoSpeed® , Wilson® nCode® and Babolat® NS™

Ice hockey stick [read more]




Ski poles [read more]



Ski [read more]



Antistatic Gloves [read more]



Easton AeroForce Carbon Nanotubes (CNT) Bar [read more]





Easton EC90 Carbon Crank [read more]




Easton AeroForce M.O.D. CNT Extensions '09 [read more]


Easton MonkeyLite SL MTB Riser Bar '09 [read more]





Easton EC 70 Aero Carbon Road Bar '09 [read more]




Easton EA30 MTB XC Handlebar '09 [read more]




Easton EC90 SL Road Fork '09 [read more]



Easton EC70 Carbon Road Stem '09 [read more]




Easton EC70 Carbon Road Seat Post '09 [read more]



Nanotube bike [read more]




Spaceships - NASA [read more]


Source:NASA

Space elevator [read more]




World's Largest Sheet of Carbon Nanotubes [read more]



World's smallest brush [read more]





UC Researchers Shatter World Records with Length of Carbon Nanotube Arrays [read more]




Smart concrete detects traffic flow

One day in the future, thanks to nanotechnology, a concrete road surface will be "smart" enough to detect vehicle speed, vehicle weight and even its own structural health. [read more]


Carbon Nanotube Artificial Muscles For Aircraft "Smart Skins" and Super Strength Soldiers


Research on a new kind of carbon nanotube artificial muscle for Air Force aerospace and space applications, conceived and invented, at the University of Texas at Dallas (UTD) is receiving primary financial support from the Air Force Office of Scientific Research (AFOSR). [read more]


(photo credit: Mr. Alvin Quiambao, Air Force Office of Scientific Research)


Nanotube networks cut polymer flammability

Researchers at the National Institute of Standards and Technology, US, and the University of Pennsylvania, US, have found that if carbon nanotubes in a polymer matrix form a “jammed network” structure they can act as more effective flame-retardant additives than nanoclay particles. The addition of nanotubes also improves the mechanical properties and electrical conductivity of the polymers. [read more]

Video sequences reveal how different additives affect the behaviour of a plastic material (PMMA) when heated under fire-like conditions. The top two rows show behaviour during heating, and the bottom shows the final residue. Unmodified PMMA (left) behaves like a liquid, bubbling vigorously and leaving almost no residue. Adding a tiny dash (0.5 wt percent) of single-walled carbon nanotubes (centre) nearly eliminated bubbling; the residue was slightly thinner than the original sample, and it had a smooth undulating surface. Numerous small "islands" formed during heating of the material with multi-walled carbon nanotubes (MWNTs) and vigorous bubbling was observed among islands. With continued heating, islands eventually coagulated, forming large islands separated by deep cracks. Image credit: NIST

Transparent conductive films containing CNTs


CNT-based transparent conductive films may be used as a replacement for the brittle and expensive indium tin oxide (ITO) coated films currently used in such products as touch screens, LCD displays, solar cells, and solid state (OLED) lighting. [read more]

Touch screen, LCD display and solar cell.


Carbon Nanotube Radio for Communications and Medical Applications Available for Licensing from Lawrence Berkeley

National Laboratory Professor Alex Zettl and his team at Berkeley Lab have invented and constructed a fully functional, integrated radio receiver based on a single carbon nanotube (CNT). The nanotube serves simultaneously as all essential components of a radio -- antenna, tunable band-pass filter, amplifier, and demodulator—to convert an electromagnetic signal into a mechanical signal and then into an electrical signal amplified and demodulated to produce audible sound. The radio is several orders of magnitude smaller than previous radios due to the use of the nanotube’s electro-mechanical movement instead of a conventional radio’s electrical components. [read more]



(a) Schematic of the nanotube radio. Radio transmissions tuned to the nanotube’s resonance frequency force the charged nanotube to vibrate. Field emission of electrons from the tip of the nanotube is used to detect the vibrations and also amplify and demodulate the signal. A current measuring device, such as a sensitive speaker, monitors the output of the radio. (b) Transmission electron micrographs of a nanotube radio off resonance (top) and on resonance (bottom) during a radio transmission. Image credit: LBNL 


Find more CNT applications here:



General List of Potential Applications for Carbon Nanotubes

  • Conductive plastic
  • Structural composite materials
  • Flat-panel displays 
  • Antifouling paint 
  • Micro- and nano-electronics 
  • Radar-absorbing coating 
  • Technical textiles 
  • Ultra-capacitors 
  • Atomic Force Microscope (AFM) tips 
  • Batteries with improved lifetime 
  • Biosensors for harmful gases 
  • Extra strong fibers
  • Micro-electronics / semiconductors
  • Conducting Composites 
  • Controlled Drug Delivery/release 
  • Artificial muscles 
  • Field Effect transistors and Single electron transistors 
  • Nano lithography 
  • Doping 
  • Nano balance 
  • Nano tweezers 
  • Data storage 
  • Magnetic nanotube 
  • Nanogear 
  • Nanotube actuator 
  • Molecular Quantum wires 
  • Hydrogen Storage 
  • Noble radioactive gas storage 
  • Solar storage 
  • Waste recycling 
  • Electromagnetic shielding 
  • Dialysis Filters 
  • Thermal protection
  • Reinforcement of armour and other materials 
  • Avionics 
  • Collision-protection materials 
  • Fly wheels CNT arraysTransparent electrodes
  • Thin film transistors
  • Fuel cell components
  • Memory
  • Electrochemical devices
  • Field emitters
  • Photo-emitters
  • Optoelectronic devices
  • Catalyst supportsElectromechanical transducersSensors
  • Medical devices