Manufacturer in customized C60 Water Dispersion Fellerene Solution

Carbon 60 ([60] Fullerene), non-metallic elemental, chemical formula C60. It is a molecule of 60 carbon atoms, shaped like a football, also known as football ene.

Fullerene C60 is a good superconducting material or catalyst material.

Fullerene C60 nanoparticles used for photoconductor in photocopier.

Fullerene C60 Nanoparticles have the purity of 99.9% apply to many filed such as the metal material and the medical area etc.

Fullerene c60 could used as functional polymer and biologically materials,could supply with powder and dispersion form.

spherical Fullerene C60 powders available in diameter：0.7nm,length:1.1nm with 99.9% purity. Mini order is 1g.

Fullerenes were discovered many organic reagents have high chemical activity, which have machine chemical reaction to introduce polymer chemistry can be used for synthesis of fullerenes and design derived polymers.

After a suitable metal doping, fullerene exhibit good superconductivity.

Footballene C60 is widely used in diamond thin film growth and super lubricant.

Bulk supply nano material Water soluble and alcohol soluble fullerene C60 china.

Fullerene C60 Nanoparticles have the purity of 99.9% apply to many filed such as memory material and the medical area etc.

Specification of fullerene powder :   1. Synonym: Footballene, Buckminsterfullerene 2. Size: Diameter:0.7nm; Length: 1.1nm 3. Purity: 99.9% 4. True density: 1.70g/cm3 5. Electrical resistivity:102.6μΩ·m 6. Appearance: black powder   Application: Unlike inorganic solar cells, which are widely used today, organic materials can be made into inexpensive flexible carbon-based materials, such as plastics. Manufacturers can mass produce coils of various colors and configurations and laminate them seamlessly to almost any surface. on. However, the poor conductivity of organic materials has hindered the progress of related research. Over the years, poor conductivity of organic matter has been seen as inevitable, but this is not always the case. Recent studies have found that electrons can move a few centimeters in a thin layer of fullerene, which is incredible. In current organic batteries, electrons can only travel hundreds of nanometers or less. Electrons move from one atom to another, forming a current in a solar cell or electronic component. In inorganic solar cells and other semiconductors, silicon is widely used. Its tightly-bonded atomic network allows electrons to pass through easily. However, organic materials have many loose bonds between individual molecules that trap electrons.  However, the latest findings show that it is possible to adjust the conductivity of fullerene materials depending on the specific application. The free movement of electrons in organic semiconductors has far-reaching implications. For example, currently, the surface of an organic solar cell must be covered with a conductive electrode to collect electrons from where electrons are generated, but free-moving electrons allow electrons to be collected at a position remote from the electrode. On the other hand, manufacturers can also shrink conductive electrodes into virtually invisible networks, paving the way for the use of transparent cells on windows and other surfaces.