Titanium alloy high-pressure seamless gas cylinder with large volume, and manufacturing method
The technology of a seamless gas cylinder and a manufacturing method, which is applied to the container filling method, the container discharging method, the manufacturing of the container structure, etc., can solve the problems of difficult quality control, easy defects at the weld, and low utilization rate of blanks. , to achieve the effect of improving the overall performance and safety of the structure, excellent comprehensive mechanical properties of the cylinder, good strength and impact toughness
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Embodiment 1
[0039] A method for manufacturing a large-volume titanium alloy high-pressure seamless gas cylinder, comprising the following steps:
[0040] Step 1. Select Ti as the matrix according to the design size, including Al5%, Nb2.5%, Zr1%, Mo0.5% by mass percentage, and the total content of other impurity elements is not more than 0.15%. Reserve ;
[0041] Step 2. Ultrasonic flaw detection is carried out on the large-diameter titanium alloy pipe in step 1. The pipe should not have defects exceeding 5% of the designed wall thickness of the gas cylinder;
[0042] Step 3. Spinning and sealing both ends of the large-diameter titanium alloy pipe that has passed the flaw detection, to obtain a primary gas cylinder body with an ellipsoidal head at both ends, and a straight section of opening and necking at the end of the ellipsoidal head;
[0043] Step 4: Perform solution heat treatment at 950~1050°C on the body of the primary gas cylinder, so that the yield strength of the bottle body is...
Embodiment 2
[0052] A method for manufacturing a large-volume titanium alloy high-pressure seamless gas cylinder, comprising the following steps:
[0053] Step 1. Select Ti as the matrix according to the design size, including Al6.5%, Nb5%, Zr3%, Mo1.5% by mass percentage, and the total content of other impurity elements is not more than 0.15%. Reserve ;
[0054] Step 2. Ultrasonic flaw detection is carried out on the large-diameter titanium alloy pipe in step 1. The pipe should not have defects exceeding 5% of the designed wall thickness of the gas cylinder;
[0055] Step 3. Spinning and sealing both ends of the large-diameter titanium alloy pipe that has passed the flaw detection, to obtain a primary gas cylinder body with an ellipsoidal head at both ends, and a straight section of opening and necking at the end of the ellipsoidal head;
[0056] Step 4: Perform solution heat treatment at 950~1050°C on the body of the primary gas cylinder, so that the yield strength of the bottle body is...
Embodiment 3
[0065] A method for manufacturing a large-volume titanium alloy high-pressure seamless gas cylinder, comprising the following steps:
[0066] Step 1. Select Ti as the matrix according to the design size, including Al5.9%, Nb3.5%, Zr2%, Mo1% by mass percentage, and the total content of other impurity elements is not more than 0.15%. Reserve ;
[0067] Step 2. Ultrasonic flaw detection is carried out on the large-diameter titanium alloy pipe in step 1. The pipe should not have defects exceeding 5% of the designed wall thickness of the gas cylinder;
[0068] Step 3. Spinning and sealing both ends of the large-diameter titanium alloy pipe that has passed the flaw detection, to obtain a primary gas cylinder body with an ellipsoidal head at both ends, and a straight section of opening and necking at the end of the ellipsoidal head;
[0069] Step 4: Perform solution heat treatment at 950~1050°C on the body of the primary gas cylinder, so that the yield strength of the bottle body is...
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