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A kind of microsphere graphene reinforced masterbatch and preparation method

A technology to enhance the masterbatch and graphene, which is applied in the field of material processing, can solve the problems that graphene composite microspheres cannot be applied and the distribution of graphene is uneven, and achieve the effect of easy flow and dispersion, easy large-scale industrial production, and tight combination

Active Publication Date: 2020-02-14
台州施特自动化有限公司
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  • Summary
  • Abstract
  • Description
  • Claims
  • Application Information

AI Technical Summary

Problems solved by technology

The preparation method of the present invention is simple and easy, has no environmental pollution, and is easy to realize industrial production, and the magnetic hollow graphene-based composite microspheres prepared at the same time have high specific surface area and developed pore structure. The method provides a new method for the preparation of graphene composite materials. This is an idea, but the prepared graphene composite microspheres cannot be applied in the field of engineering polymers
[0008] Therefore, new technologies need to be introduced in the field of polymer preparation to solve the problem of uneven distribution of graphene in it.

Method used

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  • A kind of microsphere graphene reinforced masterbatch and preparation method

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Experimental program
Comparison scheme
Effect test

Embodiment 1

[0025] (1) Put the glass raw material into the kiln for melting, the melting temperature is 1500℃~1600℃, after being completely melted, it is sent into the air jet machine, and under the action of high-pressure gas, it is sprayed downward through the porous nozzle to form a rapid direction. The high-speed glass droplets sputtered under the glass droplets form spherical fine glass beads under the action of gravity and pressure. At the lower end of the air jet machine, a high-pressure nozzle countercurrent to the glass beads is installed to eject graphene. Graphene disperses and collides with the incompletely condensed glass beads. With the condensation of the melt on the surface of the glass beads, the graphene is firmly bonded to the surface of the peeled beads and sieved to form graphene microspheres;

[0026] (2) After dispersing 30 parts by weight of microsphere graphene, 50 parts by weight of polyethylene resin, and 1 part by weight of active agent polypropylene wax, granul...

Embodiment 2

[0029] (1) Put the glass raw material into the kiln for melting, the melting temperature is 1500℃~1600℃, after being completely melted, it is sent into the air jet machine, and under the action of high-pressure gas, it is sprayed downward through the porous nozzle to form a rapid direction. The high-speed glass droplets sputtered under the glass droplets form spherical fine glass beads under the action of gravity and pressure. At the lower end of the air jet machine, a high-pressure nozzle countercurrent to the glass beads is installed to eject graphene. Graphene disperses and collides with the incompletely condensed glass beads. With the condensation of the melt on the surface of the glass beads, the graphene is firmly bonded to the surface of the peeled beads and sieved to form graphene microspheres;

[0030] (2) After dispersing 50 parts by weight of microsphere graphene, 50 parts by weight of polypropylene resin, and 2 parts by weight of active agent EVA wax, granulate thro...

Embodiment 3

[0033] (1) Put the glass raw material into the kiln for melting, the melting temperature is 1500℃~1600℃, after being completely melted, it is sent into the air jet machine, and under the action of high-pressure gas, it is sprayed downward through the porous nozzle to form a rapid direction. The high-speed glass droplets sputtered under the glass droplets form spherical fine glass beads under the action of gravity and pressure. At the lower end of the air jet machine, a high-pressure nozzle countercurrent to the glass beads is installed to eject graphene. Graphene disperses and collides with the incompletely condensed glass beads. With the condensation of the melt on the surface of the glass beads, the graphene is firmly bonded to the surface of the peeled beads and sieved to form graphene microspheres;

[0034] (2) After dispersing 40 parts by weight of microsphere graphene, 40 parts by weight of polystyrene resin, and 3 parts by weight of active agent oleic acid amide, granula...

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Abstract

Theinvention discloses a microsphere graphene reinforced master batch and a preparation method. In a glass microsphere forming process, graphene adheres to the surface of the glass microsphere, so as to form microsphere graphene with graphene as a wrapping layer and glass microsphere as a core after condensation. The graphene fulfills a higher potential in interface characteristic, further, the graphene and the glass microsphere are combined tightly, so that the microsphere graphene is easy to flow and scatter. The graphene scatters in a sphere state, thereby being prevented from gathering effectively. The microsphere graphene reinforced master batch with a reinforcing function can be obtained by assisting pelletizing of high-molecular polymer. When the microsphere graphene reinforced master batch is used for reinforcing materials like plastics and rubber, the graphene is tightly combined with the glass microsphere so as to scatter in the microsphere state in the system, so that the scattering function is improved substantially; in addition, the graphene fulfills a higher potential in interface characteristic, that is, the graphene can be better wound the plastics and rubber. The preparation method disclosed in the invention is simple, a wide range of raw materials can be used, and the preparation method is contamination-free, is low in cost, and is easy to realize large-scale industrial production.

Description

technical field [0001] The invention relates to the field of material processing, in particular to a microsphere graphene reinforced masterbatch and a preparation method. Background technique [0002] With the development of nanotechnology, the combination of polymers and nanomaterials has become a hot spot in the research field of material enhancement and modification. Add nanomaterials to polymers by physical and mechanical methods to reduce material costs, improve molding performance or end-use performance, or make materials on the surface and electricity, magnetism, light, heat, sound, combustion and other aspects to give unique functions and other effects. [0003] Graphene is a planar carbon nanomaterial composed of a layer of carbon atoms. It is the thinnest known two-dimensional material, with a thickness of only 0.335nm. It is composed of a hexagonal lattice. The carbon atoms in graphene are connected by σ bonds, endowing graphene with extremely excellent mechanic...

Claims

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Application Information

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Patent Type & Authority Patents(China)
IPC IPC(8): C08L23/06C08L23/12C08L23/08C08K9/02C08K3/04C08K7/20C08J3/22C08L23/22C08L25/06
CPCC08J3/226C08J2323/22C08J2423/06C08J2423/12C08J2425/06C08K3/04C08K7/20C08K9/02C08L23/06C08L23/12C08L23/22C08L2205/02C08L2205/03C08L23/0853C08L25/06
Inventor 陈庆王镭迪曾军堂
Owner 台州施特自动化有限公司
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