A kind of anti-wax, anti-scaling and anti-corrosion alloy material for industrial pipelines and equipment
An alloy material and anti-corrosion technology, which is applied in the field of wax-proof, anti-scaling and anti-corrosion alloy materials, can solve the problems that the pipeline anti-wax, anti-scaling and anti-corrosion can not achieve the ideal effect, affect the service life of the equipment, and the use effect is poor. Extend the maintenance and replacement cycle, improve the anti-fouling and waxing function, and weaken the effect of oxidation
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Embodiment 1
[0018] Example 1: The weight percentage of each component in the alloy is Cu=61.13wt%, Zn=15.6wt%, Ni=16.83wt%, Pb=2.51wt%, Sn=3.35wt%, Fe=0.33wt%, Sb< 0.005wt%, the rest is S and Mn, this alloy material has a particularly outstanding effect on wax, scale and corrosion.
[0019] Specific anti-wax and anti-scaling effect: oil well equipment in an oil field does not have a wax anti-scaling device made of this alloy material. The waxing and scaling of oil production equipment is serious, and because of the single method of wax removal and scaling, the crude oil production capacity is low , And the wax and scale preventer made of this alloy material has better results, mainly in stable production, long cumulative running time, up to 240 days; cumulative oil production is much higher than before, and the current is : 7750 tons.
[0020] Specific anti-corrosion effect: An oil field selected one of the oil wells to test the anti-corrosion and anti-scaling performance of the equipment pre...
Embodiment 2
[0083] Example 2: Compared with Example 1, the alloy material described in this example has the same function, effect and principle. The only difference is the weight percentage of each component in the alloy. The weight percentage of each component in the alloy in this example is respectively Cu=52wt%, Zn=14.2wt%, Ni=15wt%, Pb=2wt%, Sn=3wt%, Fe=0.23wt%, Sb<0.005wt%, and the rest are S and Mn.
Embodiment 3
[0084] Example 3: Compared with Examples 1 and 2, the alloy material described in this example has the same functional effects, principles, and batching calculations. The only difference is the weight percentage of each component in the alloy. The weight percentages of each component are Cu=65wt%, Zn=20wt%, Ni=19wt%, Pb=3wt%, Sn=5wt%, Fe=0.43wt%, Sb<0.005wt%, the rest are S and Mn .
[0085] In addition, in the aforementioned alloy materials, the weight percentages of S and Mn can be preferably implemented as S=0.125wt% and Mn=0.12wt%.
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