cu‑ti‑cr‑zr high-performance copper-based elastic alloy and its manufacturing method
A technology of elastic alloy and manufacturing method, which is applied in the field of ultra-high-strength elastic copper alloy materials, can solve problems such as unfavorable environment, and achieve the effect of wide application
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Embodiment 1
[0018] Alloy materials are prepared from high-quality metal titanium, chromium, zirconium, vanadium, cerium, and electrolytic copper. The design masses of each group are: 0.7 kg of high-quality metal titanium, 0.034 kg of chromium, 0.06 kg of vanadium, 0.018 kg of zirconium, and 0.004 kg of cerium 19.184 kg of electrolytic copper (loaded into a 25 kg vacuum induction furnace step by step) The operating procedure is as follows: titanium + chromium + zirconium + cerium + vanadium + copper → melting → refining → condensation → refining → heating → casting
[0019] After casting and forming, the ingot is heated to 870°C and forged into a slab. After the slab is processed, it is heated to 600~850°C to open and roll the slab (bar billet), and then solid solution at 850°C. ℃ annealing, continue cold rolling and then quench at 850 ℃, and continue cold rolling the finished product. The total processing rate is controlled between 50-70%, and the finished product processing rate is contr...
Embodiment 2
[0032] Alloy materials are prepared from high-quality metal titanium, chromium, zirconium, vanadium, cerium, and electrolytic copper. The design masses of each group are: 0.7 kg of high-quality metal titanium, 0.036 kg of chromium, 0.06 kg of vanadium, 0.018 kg of zirconium, and 0.008 kg of cerium Kg, 19.178 kg of electrolytic copper (loaded into a 25kg vacuum induction furnace step by step) The operating procedure is as follows: titanium + chromium + zirconium + cerium + vanadium + copper → melting → refining → condensation → refining → heating → casting
[0033] After casting and forming, the ingot is heated to 870°C and forged into a slab. After the slab is processed, it is heated to 600~850°C to open and roll the slab (bar billet), and then solid solution at 850°C. ℃ annealing, continue cold rolling and then quench at 850 ℃, and continue cold rolling the finished product. The total processing rate is controlled between 50-70%, and the finished product processing rate is co...
Embodiment 3
[0036] Alloy materials are prepared from high-quality metal titanium, chromium, zirconium, vanadium, cerium, and electrolytic copper. The design masses of each group are: 0.76 kg of high-quality metal titanium, 0.04 kg of chromium, 0.07 kg of vanadium, 0.02 kg of zirconium, and 0.012 kg of cerium. Kg, 19.098 kg of electrolytic copper (loaded into a 25kg vacuum induction furnace step by step) The operating procedure is as follows: titanium + chromium + zirconium + cerium + vanadium + copper → melting → refining → condensation → refining → heating → casting
[0037] After casting and forming, the ingot is heated to 870°C and forged into a slab. After the slab is processed, it is heated to 600~850°C to open and roll the slab (bar billet), and then solid solution at 850°C. ℃ annealing, continue cold rolling and then quench at 850 ℃, and continue cold rolling the finished product. The total processing rate is controlled between 50-70%, and the finished product processing rate is co...
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