Method for producing composite material by adopting continuous casting
A composite material and continuous casting technology, applied in the field of metallurgy, can solve the problems of single raw material, casting billet defects, uncompetitive light weight, etc., and achieve the effect of increasing strength and tensile strength and reducing weight
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Embodiment 1
[0021] Such as Figures 1 to 3 Shown, this adopts continuous casting to produce the method for composite material, it comprises the following specific steps:
[0022] Place carbon nanotubes as the core material in the center of the crystallizer and connect and fix them with the traction device. Pour molten steel with a temperature of 1600°C in the tundish into the pouring cavity of the mold. The molten steel contacts the core material of carbon nanotubes, and the The surface of the material is cooled and solidified to form a clad steel layer. The ratio of the inner diameter of the pouring cavity of the crystallizer to the inner diameter of the carbon nanotube core material is 2:1. The traction device is started to move the compounded billet from the crystallizer at a speed of 100mm / min. Pull out from below; when the shell thickness at the outlet of the lower end of the crystallizer reaches 50mm, start the crystallizer vibration device (the amplitude is 3mm±12mm, the vibration ...
Embodiment 2
[0025] Such as Figures 1 to 3 Shown, this adopts continuous casting to produce the method for composite material, it comprises the following specific steps:
[0026] Place the carbon nanotubes as the core material in the center of the mold and connect and fix it with the traction device. Pour molten steel with a temperature of 1630°C in the tundish into the pouring cavity of the mold. The molten steel contacts the carbon nanotube core material, and the The surface of the material is cooled and solidified to form a clad steel layer. The ratio of the inner diameter of the pouring cavity of the crystallizer to the inner diameter of the carbon nanotube core material is 2.3:1. The traction device is started to move the compounded billet from the crystallizer at a speed of 130mm / min. Pull out from below; when the shell thickness at the outlet of the lower end of the crystallizer reaches 60mm, start the crystallizer vibration device (the amplitude is 6mm±12mm, the vibration frequenc...
Embodiment 3
[0029] Such as Figures 1 to 3 Shown, this adopts continuous casting to produce the method for composite material, it comprises the following specific steps:
[0030] Place carbon nanotubes as the core material in the center of the crystallizer and connect and fix them with the traction device. Pour molten steel with a temperature of 1650°C in the tundish into the pouring cavity of the mold. The molten steel contacts the core material of carbon nanotubes, and the The surface of the material is cooled and solidified to form a clad steel layer. The ratio of the inner diameter of the pouring cavity of the crystallizer to the inner diameter of the carbon nanotube core material is 2.5:1. The traction device is started to move the compounded billet from the crystallizer at a speed of 150mm / min. Pull out from below; when the shell thickness at the outlet of the lower end of the crystallizer reaches 70mm, start the crystallizer vibration device (the amplitude is 9mm±12mm, the vibratio...
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