Coppered carborundum particle reinforced Mg-based compound material
A technology for silicon carbide particles and composite materials, applied in the field of magnesium-based composite materials, can solve problems such as being unsuitable for industrial production, complex directional solidification process, etc., and achieve the effects of uniform distribution of silicon carbide particles, good interface bonding, and wide application fields.
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Embodiment 1
[0013] In this example, silicon carbide (SiC) particles plated with electroless copper (Cu) are used as the reinforcing phase, and magnesium is used as the matrix phase, and a special interface layer is obtained by electroless copper plating on the surface of the silicon carbide particles, so that the manufactured composite material can obtain strength. Good match with damping performance. 40 μm pure magnesium powder and 14 μm SiC particles are used as the original powder materials, and the volume percentage of SiC particles is 5%. The surface of the SiC particles is electrolessly plated with a Cu coating with a weight ratio of 30%, and the electroless copper coating is uniformly covered on the surface of the silicon carbide particles in the form of extremely fine particles. Then, after mixing, cold pressing, sintering and hot extrusion, a composite material with uniform particle distribution, dense organization and good interface bonding is obtained. The tensile strength of ...
Embodiment 2
[0015] In this example, the silicon carbide particles with electroless copper plating are used as the reinforcing phase, and magnesium is used as the matrix phase, and a special interface layer is obtained by electroless copper plating on the surface of the silicon carbide particles, so that the manufactured composite material can obtain a good match of strength and damping performance. . 40 μm pure magnesium powder and 14 μm SiC particles are used as the original powder materials, and the volume percentage of SiC particles is 10%. The surface of the SiC particles is electrolessly plated with a Cu coating with a weight ratio of 30%, and the electroless copper coating is uniformly covered on the surface of the silicon carbide particles in the form of extremely fine particles. Then, after mixing, cold pressing, sintering and hot extrusion, a composite material with uniform particle distribution, dense organization and good interface bonding is obtained. The tensile strength of ...
Embodiment 3
[0017] In this example, the electroless copper-plated silicon carbide particles are used as the reinforcing phase, and magnesium is used as the matrix phase, and a special interface layer is obtained by electroless copper plating on the surface of the silicon carbide particles, so that the manufactured composite material can obtain a good match of strength and damping performance. . 40 μm magnesium-aluminum alloy powder and 14 μm SiC particles are used as original powder materials, and the volume percentage of SiC particles is 30%. The surface of the SiC particles is electrolessly plated with a Cu coating with a weight ratio of 30%, and the electroless copper coating is uniformly covered on the surface of the silicon carbide particles in the form of extremely fine particles. Then, after mixing, cold pressing, sintering and hot extrusion, a composite material with uniform particle distribution, dense organization and good interface bonding is obtained. The tensile strength of ...
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