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Carbon Nanohorns

Single-Walled, Double Walled, and Multi-Walled

Product

Product Code

Order or Specifications

99% Carbon Nanohorns

C-M-01-NH

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99.9% Carbon  Nanohorns

C-M-03-NH

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99.99% Carbon  Nanohorns

C-M-04-NH

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99.999% Carbon  Nanohorns

C-M-05-NH

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Carbon (C) Nanohorns, Single-Walled, Double Walled and Multi-Walled - Are black nano scale cylindrical tubes of graphitic carbon which differ from nanotubes in their “horn-like” shape similar to a sewing thimble giving them numerous applications as both the stiffest and strongest known fibers and because of their unique shape gives them an enormous amount of surface area. The resulting material has found application in proton exchange membrane (PEM) and Polymer Electrolyte (PEFC) fuel cells because they have the duel capability of providing a high surface area conductive layer and open gas paths. They are available in single walled, double walled and multi-walled forms, bundled and unbundled, with tube lengths from 5 to 30 nanometers (nm) and specific surface area (SSA) in the 50 to 500 m 2 /g range. Carbon Nanohorns are available in ultra high purity and high purity and coated suspended and dispersed forms. Technical support on dispersions and coatings selection is available. Development research is underway in Nano Electronics and Photonics materials, such as MEMS and NEMS, Bio Nano Materials, such as Biomarkers, Bio Diagnostics & Bio Sensors, and Related Nano Materials, for use in Polymers, Textiles, Fuel Cell Layers, Composites and Solar Energy materials. Nanopowders are analyzed for chemical composition by ICP, particle size distribution (PSD) by laser diffraction, and for Specific Surface Area (SSA) by BET multi-point correlation techniques. Novel nanotechnology applications also include Quantum Dots. High surface areas can also be achieved using solutions and using thin film by sputtering targets and evaporation technology using pellets, rod and foil. Applications for Carbon Nanohorns include in fuel cells, flat screen displays, scanning probe microscopes in brushes for commercial electric motors, and in sensing devices and because of their strength in numerous aerospace and automotive uses, in body armor and tear-resistant cloth fibers and textiles and stronger and lighter sports equipment . Carbon nanohorns can behave like a conductive metallic or semiconductor depending on their structure, which is useful for nanoscale electronic devices and in electrically conductive films in coatings, plastics, nanowire, nanofiber and in certain bioscience applications. Carbon Nanohorns are generally immediately available in most volumes. Additional technical, research and safety (MSDS) information is available.

Carbon is a Block P, Group 12, Period 2 element. The electronic configuration is [He] 2s2 2p2. In its elemental form carbon's CAS number is 7440-44-0. The carbon atom has a radius of 70.pm and it's Van der Waals radius is 170.pm. Carbon in its elemental form is one of the softest (graphite) and hardest (diamond) materials found in nature. Applications for graphitic carbon include in lubricant formulations and as the replacement for lead in pencils. Diamond has numerous industrial applications due to its extreme hardness and resistance to heat and pressure. Graphene is a nanoscale ultra thin film or foil with thicknesses as small as 1 nanometer which can be produced from either silicon carbide or graphite flake processing.

Formula

CAS No.

Appearance

Molecular Weight

C

 

Black

 

PRODUCT CATALOG

Carbon Products

Nanoparticles

Foil

Submicron & Nanopowder

Tolling

Ultra High Purity

Sputtering Target

Crystal Growth

Rod, Plate, Powder, etc.

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Recent Research & Development for Nanoparticles

  • Nanoparticles in Medicine: Therapeutic Applications and Developments. Clin Pharmacol Ther. 2007 Oct 24; [Epub ahead of print]


  • The formation of nanoscale structures in soluble phosphosilicate glasses for biomedical applications: MD simulations. Faraday Discuss. 2007;136:45-55; discussion 107-23.


  • Microwave-accelerated metal-enhanced fluorescence: an ultra-fast and sensitive DNA sensing platform. Analyst. 2007 Nov;132(11):1122-9. Epub 2007 Sep 11.


  • Gas sensors based on nanostructured materials. Analyst. 2007 Nov;132(11):1083-1099. Epub 2007 Sep 18.


  • Novel Arylhydrazone-Conjugated Gold Nanoparticles with DNA-Cleaving Ability: The First DNA-Nicking Nanomaterial. Bioconjug Chem. 2007 Oct 23; [Epub ahead of print]


  • Stability and Adsorption Properties of Electrostatic Complexes: Design of Hybrid Nanostructures for Coating Applications. Langmuir. 2007 Oct 20; [Epub ahead of print]


  • Use of the Interparticle i-Motif for the Controlled Assembly of Gold Nanoparticles. Langmuir. 2007 Oct 19; [Epub ahead of print]


  • Surface-potential heterogeneity of reacted calcite and rhodochrosite. Environ Sci Technol. 2007 Sep 15;41(18):6491-7.


  • Controlled Bioactive Nanostructures from Self-Assembly of Peptide Building Blocks. Angew Chem Int Ed Engl. 2007 Oct 19; [Epub ahead of print] No abstract available.


  • Nanostructure analysis using spatially modulated illumination microscopy. Nat Protoc. 2007;2(10):2640-6.


  • Deposition of controlled thickness ultrathin SnO2:Sb films by spin-coating.
    J Nanosci Nanotechnol. 2006 Dec;6(12):3849-53.


  • Self-assembly of tin oxide nanoparticles: localized percolating network formation in polymer matrix.
    Langmuir. 2006 Oct 24;22(22):9260-3.]


  • Control of the electrical conductivity of composites of antimony doped tin oxide (ATO) nanoparticles and acrylate by grafting of 3-methacryloxypropyltrimethoxysilane (MPS).
    J Colloid Interface Sci. 2006 Dec 15;304(2):394-401. Epub 2006 Sep 7.


  • Ultrafast electron transfer between molecule adsorbate and antimony doped tin oxide (ATO) nanoparticles.
    J Phys Chem B Condens Matter Mater Surf Interfaces Biophys. 2005 Apr 21;109(15):7095-102.


  • Nanoscale zinc antimonides: synthesis and phase stability.
    Inorg Chem. 2006 Feb 20;45(4):1693-7.


  • Aqueous latex/ceramic nanoparticle dispersions: colloidal stability and coating properties.
    J Colloid Interface Sci. 2004 Dec 15;280(2):387-99.


  • Nonlinear responses of electronic-excitation-induced phase transformations in GaSb nanoparticles.
    Phys Rev Lett. 2004 Apr 2;92(13):135501. Epub 2004 Mar 29.


  • Surface modification of oxidic nanoparticles using 3-methacryloxypropyltrimethoxysilane.
    J Colloid Interface Sci. 2004 Jan 1;269(1):109-16.


  • Sonochemical preparation of GaSb nanoparticles.
    Inorg Chem. 2002 Feb 25;41(4):637-9.


  • Ultrastructural changes in parasites induced by nanoparticle-bound pentamidine in a Leishmania major/mouse model.
    Parasite. 1997 Jun;4(2):133-9.

 

 

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