A 5G antenna fixing base and forming method thereof
A technology for antenna fixing and forming methods, which is applied to antenna supports/mounting devices, solid-state diffusion coatings, coatings, etc., can solve the problems of low processing accuracy, uniform mixing of metal materials, and slow processing efficiency, and achieve processing accuracy and The effect of high efficiency, low preparation cost and high utilization rate
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Embodiment 1
[0037] Embodiment 1: A kind of molding method of 5G antenna holder provided by this embodiment, it comprises the following steps:
[0038] Step 1, forming mold design: design and manufacture a powder metallurgy mold according to the shape and internal structure required by the 5G antenna holder, and install the powder metallurgy mold on a powder metallurgy molding press for use;
[0039] Step 2, raw material ratio: in terms of mass percentage, carbon powder 0.6%, copper powder 2.1%, nickel powder 2.3%, molybdenum powder 0.8%, chromium powder 1.2%, manganese powder 1.6%, carbon fiber 2% and the balance is iron Powder, wherein the particle size of the above raw materials is: carbon powder 10 μm, copper powder 15 μm, nickel powder 10 μm, molybdenum powder 10 μm, chromium powder 10 μm, manganese powder 10 μm and iron powder 20 μm, and the diameter of carbon fiber is 5 μm;
[0040] Step 3, mixing materials: according to the mass percentage in step 2, put each raw material in a mixe...
Embodiment 2
[0047] Embodiment 2: A kind of molding method of 5G antenna holder provided by this embodiment, it comprises the following steps:
[0048] Step 1, forming mold design: design and manufacture a powder metallurgy mold according to the shape and internal structure required by the 5G antenna holder, and install the powder metallurgy mold on a powder metallurgy molding press for use;
[0049] Step 2, raw material ratio: by mass percentage, carbon powder 0.8%, copper powder 2.5%, nickel powder 1.5%, molybdenum powder 1%, chromium powder 2.5%, manganese powder 2%, carbon fiber 3% and the balance is iron Powder, wherein the particle size of the above raw materials is: carbon powder 10 μm, copper powder 20 μm, nickel powder 15 μm, molybdenum powder 15 μm, chromium powder 15 μm, manganese powder 15 μm and iron powder 25 μm, and the diameter of carbon fiber is 5 μm;
[0050] Step 3, mixing materials: according to the mass percentage in step 2, put each raw material in a mixer and mix eve...
Embodiment 3
[0057] Embodiment 3: A kind of forming method of 5G antenna holder provided by this embodiment, it comprises the following steps:
[0058] Step 1, forming mold design: design and manufacture a powder metallurgy mold according to the shape and internal structure required by the 5G antenna holder, and install the powder metallurgy mold on a powder metallurgy molding press for use;
[0059] Step 2, raw material ratio: by mass percentage, carbon powder 1.2%, copper powder 3%, nickel powder 3.5%, molybdenum powder 1.5%, chromium powder 3.5%, manganese powder 3%, carbon fiber 5% and the balance is iron Powder, wherein the particle size of the above raw materials is: carbon powder 15 μm, copper powder 22 μm, nickel powder 15 μm, molybdenum powder 10 μm, chromium powder 12 μm, manganese powder 15 μm and iron powder 20 μm, and the diameter of carbon fiber is 5 μm;
[0060] Step 3, mixing materials: according to the mass percentage in step 2, put each raw material in a mixer and mix eve...
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Abstract
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