High-strength, high-conductivity, high-toughness copper-titanium alloy for integrated circuits and preparation method thereof
A technology of integrated circuits and copper-titanium alloys, which is applied in the field of high-strength, high-conductivity, high-toughness copper-titanium alloys for integrated circuits and its preparation, can solve problems such as inability to achieve sufficient strength, conductivity and toughness, and achieve high-strength, fine-grained crystallized grains and improved plasticity
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Embodiment 1
[0023] A method for preparing a high-strength, high-conductivity, high-toughness copper-titanium alloy, the preparation method comprising the steps of:
[0024] (1) Ingredients: Weigh the raw materials, the chemical composition contained in the raw materials and their weight percentages are: 3.0% titanium, 0.18% iron, 0.16% aluminum, 0.05% boron, and the balance is copper and unavoidable impurities; electrolysis Titanium, which provides Ti element; electrolytic iron, which provides Fe element; electrolytic aluminum, which provides Al element; elemental boron, which provides B element; TU2 oxygen-free copper, which provides Cu element;
[0025] (2) Vacuum smelting: put the raw materials weighed in step (1) into vacuum smelting equipment for vacuum smelting, the vacuum degree is 0.5Pa, and the temperature is 1250°C for 25 minutes to form a copper-titanium alloy melt;
[0026] (3) Casting: casting the copper-titanium alloy melt obtained in step (2) into a flat ingot, and quickly ...
Embodiment 2
[0030] A method for preparing a high-strength, high-conductivity, high-toughness copper-titanium alloy, the preparation method comprising the steps of:
[0031] (1) Ingredients: Weigh the raw materials, the chemical composition contained in the raw materials and their weight percentages are: 3.2% titanium, 0.2% iron, 0.18% aluminum, 0.07% boron, and the balance is copper and unavoidable impurities; electrolysis Titanium, which provides Ti element; electrolytic iron, which provides Fe element; electrolytic aluminum, which provides Al element; elemental boron, which provides B element; TU2 oxygen-free copper, which provides Cu element;
[0032] (2) Vacuum smelting: put the raw materials weighed in step (1) into vacuum smelting equipment for vacuum smelting, the vacuum degree is 10Pa, and the temperature is 1250°C for 30 minutes to form a copper-titanium alloy melt;
[0033] (3) Casting: casting the copper-titanium alloy melt obtained in step (2) into a flat ingot, and quickly co...
Embodiment 3
[0037] A method for preparing a high-strength, high-conductivity, high-toughness copper-titanium alloy, the preparation method comprising the steps of:
[0038] (1) Ingredients: Weigh the raw materials, the chemical components contained in the raw materials and their weight percentages are: 3.4% titanium, 0.22% iron, 0.20% aluminum, 0.09% boron, and the balance is copper and unavoidable impurities; electrolysis Titanium, which provides Ti element; electrolytic iron, which provides Fe element; electrolytic aluminum, which provides Al element; elemental boron, which provides B element; TU2 oxygen-free copper, which provides Cu element;
[0039] (2) Vacuum smelting: put the raw materials weighed in step (1) into vacuum smelting equipment for vacuum smelting, the vacuum degree is 0.01Pa, and the temperature is 1350° C. for 20 minutes to form a copper-titanium alloy melt;
[0040] (3) Casting: casting the copper-titanium alloy melt obtained in step (2) into a flat ingot, and quickl...
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