Ultra-dispersed nanocarbon and method for preparing the same

2:

• An ultradispersed one of primary particles of nanometer-sized carbon, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to an agglutinate structure of said primary particles of nanometer-sized carbon to break up the agglutinate structure, wherein said agglutinate structure is of an inclusion-type with thin layers of highly defective graphitic curved layers surrounding core nanocarbon particle.

3:

• An ultradispersed one of primary particles of nanometer-sized carbon, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to a high-order interparticle direct covalent bonding structure of said primary particles of nanometer-sized 25 carbon to decompose said covalent bonding structure.

4:

• A mono-molucular dispersed one of fullerenes, CHARACTERIZED IN THAT:
• said one of fullerenes is obtained by applying a wet-type milling method and/or a wet dispersion method to an aggregate structure of said fullerences comprising black powders of C60 fullerene, C70 fullerene and of other fullerenes, whereby van der Waals forces by which said fullerenes are held together to form said aggregate structure are overcome.

5:

• An ultradispersed one of primary particles of graphite, CHARACTERIZED IN THAT:
• said ultradispersed primary particle of graphite is obtained by applying a wet-type milling method and/or a wet dispersion method to an agglutinate structure of a super anti-abrasive carbon black to break up said agglutinate structure, wherein said agglutinate structure is of an inclusion-type with thin layers of highly defective graphitic curved layers surrounding core graphite particles.

6:

• An ultradispersed one of primary particles of nanometer-sized diamond, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to an agglutinate structure of nanometer-sized synthetic diamond powder manufactured by a shock wave synthesis procedure, whereby said agglutinate structure is broken up to provide said ultradispered primary particles of nanometer-sized diamond, wherein said agglutinate structure is of an inclusion-type with thin layers of highly defective curved layers surrounding core nanodiamond particles.

7:

• An ultradispersed one of primary particles of nanometer-sized horn, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to a high-order interparticle direct covalent bonding dahlia- like structure of said primary particles to decompose said dahlia-like structure.

8:

• A method of manufacturing an ultradispersed one of primary particles of nanometer-sized carbon, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to an aggregate structure of said primary particles of nanometer-sized carbon to overcome van der Waals forces, by which forces said primary particles of nanometer-sized carbon are held together to form said aggregate structure.

9:

• A method of manufacturing an ultradispersed one of primary particles of nanometer-sized carbon, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to an agglutinate structure of said primary particles of nanometer-sized carbon to break up said agglutinate structure, wherein said agglutinate structure is of an inclusion-type with thin layers of highly defective graphitic curved layers surrounding core nanocarbon particles.

10:

• A method of manufacturing an ultradispersed one of primary particles of nanometer-sized carbon, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to a high-order interparticle direct covalent bonding structure of said primary particles of nanometer-sized carbon to decompose said covalent bonding structure.

11:

• A method of manufacturing a mono-molucular dispersed one of fullerenes, CHARACTERIZED IN THAT:
• said one of fullerenes is obtained by applying a wet-type milling method and/or a wet dispersion method to an aggregate structure of said fullerences comprising black powders of C60 fullerene, C70 fullerene and of other fullerenes, whereby van der Waals forces by which said fullerenes are held together to form said aggregate structure are overcome.

12:

• A method of manufacturing an ultradispersed one of primary
• 10 particles of graphite, CHARACTERIZED IN THAT:
• said ultradispersed primary particle of graphite is obtained by applying a wet-type milling method and/or a wet dispersion method to an agglutinate structure of a super anti-abrasive carbon black to break up said agglutinate structure, wherein said agglutinate structure is of an inclusion-type with thin layers of highly defective graphitic curved layers surrounding core graphite particles.

13:

• A method of manufacturing an ultradispersed one of primary particles of nanometer-sized diamond, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to an agglutinate structure of nanometer-sized synthetic diamond powder manufactured by a shock wave synthesis procedure, whereby said agglutinate structure is broken up to provide said ultradispered primary particles of nanometer-sized diamond, wherein said agglutinate structure is of an inclusion-type with thin layers of highly defective graphitic layers surrounding core nanodiamond particles.

14:

• A method of manufacturing an ultradispersed one of primary particles of nanometer-sized horn, CHARACTERIZED IN THAT:
• said ultradispersed primary particle is obtained by applying a wet-type milling method and/or a wet dispersion method to a high-order interparticle direct covalent bonding dahlia-like structure of said primary particles to decompose said dahlia-like structure.

15:

• The method of manufacturing as set forth in claim 8, wherein said structure is subjected to said wet-type milling method and/or said wet dispersion method in water or in an organic solvent.

16:

• The method of manufacturing as set forth in claim 8, wherein, after completion of said wet-type milling method and/or said wet dispersion method, said primary particles of nanometer-sized carbon are subjected to an ultrasonic treatment, whereby said primary particles of nanometer-sized carbon are prevented from recombining with each other.

17:

• The method of manufacturing as set forth in claim 8, wherein, after completion of said wet-type milling method and/or said wet dispersion method, said primary particles of nanometer-sized carbon are subjected to an ultrasonic treatment, whereby said primary particles of nanometer-sized carbon are prevented from recombining with each other, wherein said structure is subjected to said wet-type milling method and/or said wet dispersion method in water or in an organic solvent.

18:

• The method of manufacturing as set forth in claim 8, wherein said wet-type milling method is carried out in an agitator at a peripheral velocity of equal to or more than 5 m/sec with the use of ceramic balls or metallic balls each of which has a diameter of equal to or less than 0.1 mm.

19:

• The method of manufacturing as set forth in claim 8, wherein said wet-type milling method is carried out in a solvent having active hydrogen atoms to prevent said primary particles from recombining with each other.