Photon energy vehicle energy-saving device and manufacturing method thereof
A technology of photon energy and energy-saving devices, applied in mechanical equipment, charging systems, engine components, etc., can solve problems such as high energy consumption and excessive emissions, and achieve the effects of prolonging engine life, improving durability, and reducing vibration
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Embodiment 1
[0042] like figure 1 As shown, the automobile energy-saving device of this embodiment includes an air ionization device 1 and an oil circuit fine molecule device 2, the air ionization device 1 is installed in the automobile intake pipe, and the oil circuit fine molecule device 2 is installed in In the car's oil pipe. The air enters the automobile engine through the air ionization device 1, and the fuel enters the automobile engine through the fine molecularization device 2 of the oil circuit.
[0043] like figure 2 and image 3 As shown, the air ionization device 1 includes an outer pipe 1-1, a side slant wing 1-2, a circular air duct 1-3 and a diamond-shaped air duct 1-4, and the side slant wing 1-2 has eight and arranged on the outer surface of the outer pipe 1-1, the circular air pipe 1-3 is located at the center of the outer pipe 1-1, and the diamond-shaped air pipe 1-4 has 4 groups, and each group is connected to a circular Between the air pipe 1-3 and the outer pipe...
Embodiment 2
[0060] The main feature of this embodiment is that the preparation process of the air ionization device is as follows:
[0061] 1) Prepare the following percentage materials: nickel oxide 1%, cobalt oxide 1.2%, iron oxide 2%, titanium oxide 2%, zinc oxide 3%, manganese oxide 4%, chromium oxide 1%, aluminum oxide 2%, lanthanum oxide 2 %, 1.5% cerium oxide, 2.3% yttrium oxide, 5% zirconia, 3% tourmaline, 75% high temperature resistant plastic particles and an appropriate amount of binder;
[0062] 2) The nickel oxide, cobalt oxide, iron oxide, titanium oxide, zinc oxide, manganese oxide, chromium oxide, aluminum oxide, lanthanum oxide, cerium oxide, yttrium oxide, zirconia and tourmaline ball milled to 200 mesh After mixing, calcining at a temperature of 600 degrees for 2.5 hours, ball milling to 400 mesh, adding high-temperature plastic particles and binders, and finally reverse molding.
[0063] All the other are with embodiment 1.
Embodiment 3
[0065] The main feature of this embodiment is that the preparation process of the oil circuit micromolecularization device is as follows:
[0066] 1) Preparation of ceramic body
[0067] 1.1) Prepare the following percentage materials: nickel oxide 3%, cobalt oxide 1%, iron oxide 17%, titanium oxide 4%, zinc oxide 5%, manganese oxide 4%, chromium oxide 1%, aluminum oxide 4%, lanthanum oxide 2 %, cerium oxide 4.5%, yttrium oxide 3.5%, zirconia 5%, silicon carbide (or silicon oxide or silicon nitride) 40%, binder 6%.
[0068] 1.2) Nickel oxide, cobalt oxide, iron oxide, titanium oxide, zinc oxide, manganese oxide, chromium oxide, aluminum oxide, lanthanum oxide, cerium oxide, yttrium oxide, zirconia, silicon carbide / silicon oxide / The silicon nitride is ball-milled to 450 mesh and then mixed, and calcined at 900 degrees for 5.5 hours, then ball-milled to 400 mesh again, and then the binder is added for stamping, and then calcined at 1200 degrees.
[0069] 2) Preparation of net...
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