High thermal conductivity graphene-carbon nano slurry and preparation method thereof
A graphene-carbon, nano-slurry technology, applied in nanotechnology, nanotechnology, nanotechnology and other directions for materials and surface science, can solve problems such as poor dispersion, prone to agglomeration, limiting graphene research and application, etc. To achieve the effect of improving quality and improving dispersibility
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Embodiment 1
[0019] (1) Prepare highly dispersed nano-silica particles by gel-sol method;
[0020] (2) Use a coupling agent to modify graphene oxide, and obtain functionalized graphene by reacting the coupling agent with graphene. After ultrasonic treatment, the functionalized graphene is dispersed in the butyl carbitol dispersion to form a functional Graphene dispersion;
[0021] (3) Add nano-silica particles to the graphene alcohol solution in a state of stirring, and mix for 30 minutes;
[0022] (4) by weight, with 3 parts of functionalized graphene dispersions containing 0.12% functionalized pure graphene, with 20 parts of organic solvents, 4 parts of auxiliary agents and supplemented to 80 parts of nano-silica particles Three-dimensional mixing technology, through the shear force generated by revolution and rotation, achieves full mixing and uniformity, and obtains graphene carbon nano-slurry with high thermal conductivity.
[0023] Wherein, the preparation method of described highl...
Embodiment 2
[0029] (1) Prepare highly dispersed nano-silica particles by gel-sol method;
[0030] (2) Use a coupling agent to modify graphene oxide, and obtain functionalized graphene by reacting the coupling agent with graphene. After ultrasonic treatment, the functionalized graphene is dispersed in the butyl carbitol dispersion to form a functional Graphene dispersion;
[0031] (3) Add nano-silica particles to the graphene alcohol solution in a state of stirring, and mix for 60 minutes;
[0032] (4) by weight, with 4 parts of functionalized graphene dispersions containing 0.13% functionalized pure graphene, with 25 parts of organic solvents, 6 parts of auxiliary agents and supplemented to 80 parts of nano-silica particles Three-dimensional mixing technology, through the shear force generated by revolution and rotation, achieves full mixing and uniformity, and obtains graphene carbon nano-slurry with high thermal conductivity.
[0033] Wherein, the preparation method of described highl...
Embodiment 3
[0039] (1) Prepare highly dispersed nano-silica particles by gel-sol method;
[0040] (2) Use a coupling agent to modify graphene oxide, and obtain functionalized graphene by reacting the coupling agent with graphene. After ultrasonic treatment, the functionalized graphene is dispersed in the butyl carbitol dispersion to form a functional Graphene dispersion;
[0041] (3) Add nano-silica particles to the graphene alcohol solution under stirring, and mix for 30-120 minutes;
[0042] (4) by weight, with 5 parts of functionalized graphene dispersions containing 0.15% functionalized pure graphene, with 30 parts of organic solvents, 8 parts of auxiliary agents and supplemented to 80 parts of nano-silica particles Three-dimensional mixing technology, through the shear force generated by revolution and rotation, achieves full mixing and uniformity, and obtains graphene carbon nano-slurry with high thermal conductivity.
[0043] Wherein, the preparation method of described highly di...
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