Preparation method of high-strength aluminum alloy material for doors/windows
An aluminum alloy material and high-strength technology, which is applied in the field of door and window materials, can solve problems that affect popularization and use, poor plasticity, and insufficient strength, and achieve good returns, good tensile strength, and long fatigue life.
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Embodiment 1
[0040] This embodiment provides a method for preparing a high-strength aluminum alloy material for doors and windows. The method for preparing the aluminum alloy material specifically includes the following steps:
[0041](1) Using aluminum alloy structural steel as the billet, the billet is heated to 900°C for hot rolling, the starting rolling temperature is 1000°C, and the final rolling temperature is 850°C. The hot-rolled billet is cooled by compressed air at 5°C per second The speed is first cooled to 580°C, and then slowly cooled to room temperature to obtain a semi-finished product;
[0042] Aluminum alloy structural steel blanks include the following components by mass percentage:
[0043] Iron: 0.3%, magnesium: 0.9%, zinc: 3%, titanium: 0.09%, chromium: 0.06%, nickel: 2%, scandium: 0.04%, yttrium: 0.01%, boron: 2%, neodymium: 1.2%, Copper: 0.20%, silicon: 0.9%, nitrogen: 0.02%, oxygen: 0.009%, carbon: 0.02%, residual elements: 0.45%, rare earth elements: 0.9%, the res...
Embodiment 2
[0053] This embodiment provides a method for preparing a high-strength aluminum alloy material for doors and windows. The method for preparing the aluminum alloy material specifically includes the following steps:
[0054] (1) Using aluminum alloy structural steel as the billet, the billet is heated to 850°C for hot rolling, the starting rolling temperature is 900°C, and the final rolling temperature is 800°C. The hot-rolled billet is cooled by compressed air at 3°C per second The speed is first cooled to 550°C, and then slowly cooled to room temperature to obtain a semi-finished product;
[0055] Aluminum alloy structural steel blanks include the following components by mass percentage:
[0056] Iron: 0.4%, magnesium: 0.8%, zinc: 4%, titanium: 0.08%, chromium: 0.05%, nickel: 1%, scandium: 0.05%, yttrium: 0.02%, boron: 1%, neodymium: 0.9%, Copper: 0.15%, silicon: 0.7%, nitrogen: 0.01%, oxygen: 0.007%, carbon: 0.03%, residual elements: 0.45%, rare earth elements: 0.5%, the r...
Embodiment 3
[0066] This embodiment provides a method for preparing a high-strength aluminum alloy material for doors and windows. The method for preparing the aluminum alloy material specifically includes the following steps:
[0067] (1) Using aluminum alloy structural steel as the billet, the billet is heated to 950°C for hot rolling, the rolling start temperature is 960°C, and the final rolling temperature is 900°C. The hot-rolled billet is cooled by compressed air at 6°C per second The speed is first cooled to 620°C, and then slowly cooled to room temperature to obtain a semi-finished product;
[0068] Aluminum alloy structural steel blanks include the following components by mass percentage:
[0069] Iron: 0.2%, Magnesium: 1.0%, Zinc: 2%, Titanium: 0.10%, Chromium: 0.08%, Nickel: 2%, Scandium: 0.02%, Yttrium: 0.03%, Boron: 2%, Neodymium: 1.5%, Copper: 0.08%, silicon: 0.8%, nitrogen: 0.03%, oxygen: 0.008%, carbon: 0.02%, residual elements: 0.25%, rare earth elements: 1.5%, the rest i...
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