Aluminum profile material beneficial to efficient heat radiation and preparation method of aluminum profile material
An aluminum-type, high-efficiency technology, applied in the field of alloys, can solve problems such as the lack of basic materials for radiators, and achieve the effects of uniform internal structure impurities, uniform distribution of iron phases, and low porosity
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Embodiment 1
[0019] An aluminum-shaped material conducive to efficient heat dissipation, consisting of the following raw materials in parts by weight: aluminum: 100 parts, silicon: 3.6 parts, magnesium: 3 parts, zinc: 0.5 parts, iron: 0.15 parts, copper: 2.5 parts, manganese: 8 parts parts, lanthanum: 0.05 parts, melamine: 1 part, tin: 0.6 parts, titanium: 3 parts.
[0020] A method for preparing an aluminum-shaped material conducive to high-efficiency heat dissipation, comprising the following steps:
[0021] S1. Heating aluminum to 800°C in an inert atmosphere to obtain an aluminum melt, and then sequentially adding refining agent, silicon, magnesium, zinc and melamine to mix and refine to obtain a mixed solution;
[0022] S2. Heat the mixed solution to 1100°C, then add copper, manganese, lanthanum, tin and titanium, keep it for 10 minutes after mixing, cool down to 950°C and keep it, add iron and mix to obtain an alloy melt;
[0023] S3, cooling the alloy melt to below the solidus temp...
Embodiment 2
[0026] An aluminum-shaped material conducive to efficient heat dissipation, consisting of the following raw materials in parts by weight: aluminum: 100 parts, silicon: 2 parts, magnesium: 1 part, zinc: 0.1 parts, iron: 0.05 parts, copper: 1 part, manganese: 5 parts parts, lanthanum: 0.01 parts, melamine: 0.01 parts, tin: 0.3 parts, titanium: 2 parts.
[0027] A method for preparing an aluminum-shaped material conducive to high-efficiency heat dissipation, comprising the following steps:
[0028] S1. Heating aluminum to 750°C in an inert atmosphere to obtain an aluminum melt, and then sequentially adding refining agent, silicon, magnesium, zinc and melamine to mix and refine to obtain a mixed solution;
[0029] S2. Heat the mixed solution to 1000°C, then add copper, manganese, lanthanum, tin and titanium, keep it for 20 minutes after mixing, cool down to 930°C and keep it, add iron and mix to obtain an alloy melt;
[0030] S3, cooling the alloy melt to below the solidus temper...
Embodiment 3
[0033] An aluminum-shaped material conducive to efficient heat dissipation, consisting of the following raw materials in parts by weight: aluminum: 100 parts, silicon: 3 parts, magnesium: 2 parts, zinc: 0.3 parts, iron: 0.1 parts, copper: 2 parts, manganese: 6 parts Parts, lanthanum: 0.04 parts, melamine: 0.07 parts, tin: 0.5 parts, titanium: 2.5 parts.
[0034] A method for preparing an aluminum-shaped material conducive to high-efficiency heat dissipation, comprising the following steps:
[0035] S1. Heating aluminum to 770°C in an inert atmosphere to obtain an aluminum melt, and then sequentially adding refining agent, silicon, magnesium, zinc and melamine to mix and refine to obtain a mixed solution;
[0036] S2. Heat the mixed solution to 1050°C, then add copper, manganese, lanthanum, tin and titanium, keep it for 15 minutes after mixing, cool down to 940°C and keep it, add iron and mix to obtain an alloy melt;
[0037] S3, cooling the alloy melt to below the solidus tem...
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