MANUFACTURING PROCESS OF A SOLID THERMAL BALANCING COMPOSITE MATERIAL WITH LIGHTWEIGHT

1 . A manufacturing process of a solid thermal balancing composite material with lightweight, comprising:

a. providing a reinforced composite material formed by mixture of inorganic filler powders and polymer adhesives after granulation, said inorganic filler powders mixed with carbon fibers or polymer fibers having a length ranging from 10 nm to 10 um for reinforcement, forming a reinforced material to be reinforced composite material with a diameter from 300 um to 3.5 mm after granulation, said inorganic filler powders selected from a group consisting of graphite, graphene, carbon materials, and inorganic materials with high thermal conductivity;

b. providing a powder filling equipment and pouring said reinforced composite material therein;

c. providing a molding machine including an upper half and a lower half, said reinforced composite material poured in said molding machine and performed pressure process for at least once, said pressure process including preliminary pressure and secondary pressure, among which each remaining a constant pressure for at least 3 seconds for solidification, forming a solid thermal balancing composite material with a heat dissipation structure; and

d. ejecting said solid thermal balancing composite material from said molding machine, said solid thermal balancing composite material having a specific gravity no greater than 2.0.

2 . The manufacturing process of a solid thermal balancing composite material with lightweight as claimed in claim 1 , further comprising step e. providing a plurality of metal particles formed by metal powders with a value of thermal conductivity greater than 90 W/mk and a diameter ranging from 1 nm to 1 mm, and step f. mixing said metal particles with high thermal conductivity with said reinforced composite material before poured into said powder filling equipment.

3 . The manufacturing process of a solid thermal balancing composite material with lightweight as claimed in claim 1 , wherein a weight percentage of said inorganic filler powders ranges from 80%-95% and a weight percentage of said polymer adhesive ranges from 5%-20% correspondingly.

4 . The manufacturing process of a solid thermal balancing composite material with lightweight as claimed in claim 2 , wherein a weight percentage of said metal particles ranges from 10%-25% and a weight percentage of said reinforced composite material ranges from 75%-90% correspondingly.

5 . The manufacturing process of a solid thermal balancing composite material with lightweight as claimed in claim 1 , wherein said polymer adhesive is asphalt, polyvinyl alcohol, polyvinyl acetate, polyimide, polyurethane, polyethylene glycol, polyethylene, polyvinyl chloride, phenolic resin, epoxide, polymethyl methacrylate, or fusible polymer materials, and said inorganic materials with high thermal conductivity are made of layered inorganic materials of silica, boron nitride, aluminum nitride, silicon carbide, diamonds, or mica.

6 . The manufacturing process of a solid thermal balancing composite material with lightweight as claimed in claim 1 , wherein said solid thermal balancing composite material further includes a protection layer of polymer adhesives formed by dipping, molding or spraying thereon.

7 . The manufacturing process of a solid thermal balancing composite material with lightweight as claimed in claim 1 , wherein said solid thermal balancing composite material is molded into a flat piece or a shape according to contours of a pre-determined product to be applied on.

8 . The manufacturing process of a solid thermal balancing composite material with lightweight as claimed in claim 7 , wherein a protection frame further engages around periphery of said solid thermal balancing composite material, said protection frame having an outer frame engaging an engaging frame.