Graphene ceramic-bustion composite energy-saving material as well as preparation method and application thereof
An energy-saving material and composite material technology, applied in the field of graphene porcelain moxibustion composite energy-saving material and its preparation, can solve the problems of inconvenience of health store operators, slow temperature raising of grooved beds, large operating costs, etc., to achieve a good physical therapy experience, enhance The effect of increasing the temperature and enhancing the heat storage performance
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Embodiment 1-6
[0042] The raw material composition of the graphene porcelain moxibustion composite energy-saving material is shown in Table 1.
[0043] The raw material composition of the heat storage materials used is shown in Table 2.
[0044] The raw material composition of the high-frequency materials used is shown in Table 3.
[0045] The raw material composition of the antibacterial materials used is shown in Table 4.
[0046] The pore-forming material is activated carbon powder.
[0047] The binding material is sodium metasilicate.
[0048] The preparation method consists of the following steps:
[0049] 1) First, mix kaolin, sepiolite and alumina, and grind to a particle size of 100-500 mesh to obtain composite material A;
[0050] 2) Mix graphene with composite material A, bake at 100-300°C for 1-5 hours, and grind to a particle size of 50-500 mesh to prepare composite material B;
[0051] 3) Mix the high-frequency material with the antibacterial material, and grind it to a particle size of 100-5...
Embodiment 1
[0086] The power consumption of the material of Example 1 is 25.6 degrees.
[0087] The power consumption of the material of Comparative Example 1 was 32.7 degrees.
[0088] In summary, it can be seen that the material of Example 1 saves more than 20% of electricity compared with the material of Comparative Example 1.
[0089] 5. About antibacterial and antibacterial properties
[0090] The bacteriostatic rate of the material of Example 1 against Escherichia coli was 99.6% and the bacteriostatic rate against Staphylococcus aureus was 99.4%.
Embodiment 2
[0091] The bacteriostatic rate of the material of Example 2 against Escherichia coli was 99.7%, and the bacteriostatic rate against Staphylococcus aureus was 99.5%.
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