Abstract:
본발명은, 육방정질화붕소를염기조건하에서기계적박리하는단계를포함하는육방정질화붕소나노시트제조방법, 육방정질화붕소나노시트-고분자복합소재제조방법, 이를이용하여제조된육방정질화붕소나노시트및 육방정질화붕소나노시트-고분자복합소재에관한것이다. 본발명을이용하여고품질의육방정질화붕소나노시트를안전한공정으로대량제조할수 있으며, 또한육방정질화붕소나노시트가균일하게분산된육방정질화붕소나노시트-고분자복합소재를제조할수 있다.
Abstract:
본발명은, 육방정질화붕소를염기조건하에서기계적박리하는단계를포함하는육방정질화붕소나노시트제조방법, 육방정질화붕소나노시트-고분자복합소재제조방법, 이를이용하여제조된육방정질화붕소나노시트및 육방정질화붕소나노시트-고분자복합소재에관한것이다. 본발명을이용하여고품질의육방정질화붕소나노시트를안전한공정으로대량제조할수 있으며, 또한육방정질화붕소나노시트가균일하게분산된육방정질화붕소나노시트-고분자복합소재를제조할수 있다.
Abstract:
본원은, 고분자 멤브레인 및 상기 고분자 멤브레인에 결합된 탄소나노튜브를 포함하는 수처리용 멤브레인, 및 이의 제조 방법에 관한 것으로, 상기 수처리용 멤브레인은 항균성 또는 항 바이러스성 효과가 향상된 수처리용 멤브레인, 및 이의 제조 방법에 관한 것이다.
Abstract:
The present invention relates to a membrane for water treatment and a method for preparing the same, wherein the member for water treatment includes a macromolecular membrane and carbon nanotubes combined to the macromolecular membrane. The membrane for water treatment has enhanced an anti-bacterial or anti-viral effect.
Abstract:
PURPOSE: A carbon nanotube-polymer nanocomposite with improved tensile strength and elongation is provided to have high strength and electric conductivity by using a melt-mixing method. CONSTITUTION: A manufacturing method of a carbon nanotube-polymer nanocomposite comprises as follows: a step of forming the solution mixture of a hydrophilic polymer, carbon nanotube, and solvent; a step of forming a dispersant by applying external energy to the solution mixture; a step of removing the solvent from the dispersant and obtaining carbon nanotube powder coated with the hydrophilic polymer; and a step of melt-mixing the powder with the polymer. The carbon nanotube-polymer nanocomposite comprises 100.0 parts by weight of a polymer matrix, 0.1-5 parts by weight of a polyvinyl alcohol, and 0.1-20 parts by weight of carbon nanotube which is dispersed in the polymer matrix and coated with the polyvinyl alcohol.
Abstract:
PURPOSE: A manufacturing method of a graphene film is provided to manufacture a large area graphene film in a simple, fast, and cheap method. CONSTITUTION: A manufacturing method of a graphene film comprises the following steps: a step of forming a graphene oxide by oxidizing graphite; a step of forming a graphene oxide dispersed solution by dispersing the graphene oxide into water; a step of forming a reduced graphene oxide dispersed solution by reducing the graphene oxide; and a step of forming a graphene film on the air/water interface by adding the reduced graphene oxide dispersed solution to a salt aqueous solution. The salt aqueous solution comprises at least one salt selected from the group consisting of organic salt and inorganic salt. The salt aqueous solution comprises at least one metal ion selected from the group consisting of alkali metal, alkaline earth metal, transition metal, post-transition metal, and metalloid. The concentration of the salt aqueous solution is 10mM-10M. [Reference numerals] (AA) Start; (BB) End; (S100) Oxidizing graphite; (S110) Forming a graphene oxide dispersed solution; (S120) Reducing a graphene oxide; (S130) Adding the reduced graphene oxide dispersed solution into a salt aqueous solution
Abstract:
PURPOSE: A method for fabricating a nanocomposite powder of graphene and ceramic is provided to uniformly disperse graphene in a matrix and to improve mechanical, electrical, or thermal property. CONSTITUTION: A nanocomposite powder of graphene and ceramic contains a matrix ceramic and graphene. The graphene is dispersed in the matrix ceramic. A nanocomposite material contains sintered nanocomposite power of graphene and ceramic. A method for preparing the nanocomposite powder comprises: a step of dispersing a graphene oxide in a solvent; and a step of injecting a metallic salt into the solvent. [Reference numerals] (AA) Grain boundary; (BB) Matrix ceramic; (CC) Graphene