A kind of tin-phosphorus-zinc-copper alloy and preparation method thereof
A technology of zinc-copper alloy and phosphorous copper, applied in the field of tin-phosphorus-zinc-copper alloy and its preparation
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Embodiment 1
[0047] A tin-phosphorus-zinc-copper alloy, the percentage by weight of each element is as shown in Table 1 below;
[0048] A preparation method of tin-phosphorus-zinc-copper alloy, comprising the following steps:
[0049] 1) Configure 1500g sample as an example to calculate: 99.9% electrolytic copper sheet should be added to the precision melting furnace with a ratio of 79.630%, that is, 1500g×79.630% = 1194.45g, because the amount of copper added to the phosphor-bronze master alloy needs to be deducted, the actual addition It is: 1194.45g-43.875g=1150.575g electrolytic copper sheet, heat up at a rate of 10°C / min, heat up to 1280-1380°C, add 0.325% phosphorus, that is, add phosphorus copper master alloy containing 10% phosphorus, that is, 1500×0.325 % / 0.1=48.75g phosphor-bronze master alloy (the copper content is 48.75-4.875=43.875g), after reaching the temperature of 1280-1380°C, stir and maintain for 10min.
[0050] 2) Weigh 0.300% nickel metal in proportion, that is, 4.5g,...
Embodiment 2-112
[0057] A tin-phosphorus-zinc-copper alloy, the percentage by weight of each element is as shown in Table 1 below;
[0058] A preparation method of a tin-phosphorus-zinc-copper alloy. Except for the amount of raw materials, other preparation process parameters are controlled as in Example 1.
[0059] Tin-phosphorus-zinc-copper alloy element content percentage by weight of the embodiment 1-112 of table 1
[0060] Table 1
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[0062]
[0063]
[0064] The tensile strength, elongation, Vickers hardness and cost of the product prepared by embodiment 1-112 are shown in table 2 below:
[0065] Product performance and cost of table 2 embodiment 1-112
[0066] (compared with the performance and cost of the commonly used QSn6.5-0.1 tin phosphor bronze with excellent performance)
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[0068]
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[0070]
[0071] The formula of the present invention adds metal beryllium, which greatly improves the strength of the alloy; greatly increases the amoun...
Embodiment 45
[0074] Embodiment 45 reduces the cost the most, reducing 19.36%. Its tensile strength is 461.9MPa, elongation is 17.4%, and hardness is 105.7HV. It is an alloy with good performance; Embodiment 54 reduces the cost by 19.35%. The tensile strength is 417.9MPa, the elongation is 30.6%, and the hardness is 109.7HV, which is also an alloy with good performance. Embodiment 49 cost has reduced 8.96%, and its tensile strength is 760.0MPa, elongation 2.43%, hardness is 95.7HV; Embodiment 73: cost has reduced 12.28%, and its tensile strength is 431.8MPa, elongation 36.5% and hardness of 63.6HV; the cost of embodiment 93 is reduced by 8.7%, its tensile strength is 463.4MPa, elongation is 16.6%, and hardness is 205.7HV.
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Abstract
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