athlos-cns-banner


CARBON NANOSTRUCTURES (CNS)

Advanced conductive carbon solutions for high performance applications. ​

ATHLOS™ CNS are unique best-in-class conductive additives with the following main features:

  • High structure: forest of crosslinked branched nanotubes
  • High purity: composed of over 97% carbon
  • Ease of use: easy to handle pellet form, low dusting and fast incorporation into dispersion material

ATHLOS™ CNS deliver an exceptional combination of conductivity, electromagnetic interference (EMI) shielding and mechanical strength for applications that require high-performance.

    ATHLOS™ CNS offer benefits particularly in the following areas:​

    lightweighting

    Lightweighting

    ATHLOS™ CNS deliver EMI shielding capabilities at low loadings enabling a transition away from traditional metal solutions.​

    electrification

    Electrification

    ATHLOS™ CNS offer superior levels of conductivity provided by a carbon-based additive, optimizing performance while driving reductions in cost and weight.​

    miniaturization

    Miniaturization

    The low loadings of ATHLOS™ CNS enable designers to develop smaller, thinner and lighter electronics with improved strength and conductivity.​

    athlos-silicone-elastomers
    ATHLOS™ SR1200 CNS can significantly enhance the electrical conductivity of silicone elastomers at low loading levels. The electrical percolation thresholds of ATHLOS SR1200 CNS are between 0.1% and 0.25% by weight in cured high-temperature vulcanized (HTV) and liquid-silicone-rubber (LSR) silicone elastomers.​

    ATHLOS™ CNS – FOR SILICONE ELASTOMERS​

    ATHLOS™ SR1200 CNS can significantly enhance the electrical conductivity of silicone elastomers at low loading levels. The electrical percolation thresholds of ATHLOS SR1200 CNS are between 0.1% and 0.25% by weight in cured high-temperature vulcanized (HTV) and liquid-silicone-rubber (LSR) silicone elastomers.​

    Download Brochure
    conductivity
    ATHLOS™ CNS enable an increase in compound conductivity with minimum impact on viscosity and broader formulation flexibility in conductive rubber compounds, for example in the inner liner for FKM automotive fuel hoses.​

    ATHLOS™ CNS – FOR CONDUCTIVE RUBBER​

    ATHLOS™ CNS enable an increase in compound conductivity with minimum impact on viscosity and broader formulation flexibility in conductive rubber compounds, for example in the inner liner for FKM automotive fuel hoses.​

    Download Brochure
    athlos-conudictivity
    Our carbon black products deliver performance to increase conductivity and protect against electrical damage, such as from electrostatic discharges (ESD).​

    CONDUCTIVity & ESD PROTECTION

    Our carbon black products deliver performance to increase conductivity and protect against electrical damage, such as from electrostatic discharges (ESD).​

    Read More
    ATHLOS™ CNS feature crosslinked, branched structure that enables CNS to impart key performance features such as high electrical conductivity with minimum impact on processability, low electrical percolation threshold, best-in-class EMI shielding performance, synergies with other formulation additives, reinforcement and lightweighting.

    NANOSTRUCTURE NETWORKING

    ATHLOS™ CNS feature crosslinked, branched structure that enables CNS to impart key performance features such as high electrical conductivity with minimum impact on processability, low electrical percolation threshold, best-in-class EMI shielding performance, synergies with other formulation additives, reinforcement and lightweighting.

    Dispersion comparison

    athlos-dispersion-comparison

    World of possibilities

    athlos-world-of-possibilites
    athlos-letsconnect

    Let's Connect

    Our sales and customer service teams are ready to assist you.

    Contact Us
    athlos-article

    Read The Article

    A comprehensive independent study published in Polymer found our carbon nanostructures (ATHLOS™) show greater electrical conductivity vs. both multi and single walled carbon nanotubes in different engineered thermoplastics.

    Read More