Transition section optimization method based on three-dimensional free bending technology
A transition section and bending technology, applied in the field of transition section optimization based on three-dimensional free bending technology, can solve problems such as transition section errors
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Embodiment 1
[0026] The first step is to establish a model and analyze the process of a curved pipe with an outer diameter of 15mm, a bending angle of 45°, and a bending radius of 90mm, and calculate the eccentricity U of the transition section according to the U-R relationship (the central axis of the guide mechanism and the bending die) The distance between the central axes is the eccentricity U):
[0027]
[0028] Movement speed of bending die spherical bearing
[0029] sport time
[0030]
[0031] In the second step, the finite element method is used to establish a three-dimensional bending model, and the correction coefficient k is introduced into the quantitative relationship described in the first step. The formula after the correction coefficient is introduced is as follows:
[0032] Movement speed of bending die spherical bearing
[0033] The third step is to use the quantitative relationship after introducing the correction coefficient k as described in the second s...
Embodiment 2
[0037] The first step is to establish a model and process analysis for a curved pipe fitting with an outer diameter of 15mm, a bending angle of 90°, and a bending radius of 90mm.
[0038] Movement speed of bending die spherical bearing
[0039] sport time
[0040]
[0041] In the second step, the finite element method is used to establish a three-dimensional bending model, and the correction coefficient k is introduced into the quantitative relationship described in the first step. The formula after the correction coefficient is introduced is as follows:
[0042] Movement speed of bending die spherical bearing
[0043] The third step is to use the quantitative relationship after introducing the correction coefficient k as described in the second step as the bending parameter, take the initial value of k as 1, start the repeated iterative calculation of the bent pipe finite element, import the calculation results into the geometric software CATIA for processing, and ...
Embodiment 3
[0047] In the first step, model building and process analysis are carried out for the curved pipe fittings with an outer diameter of 15mm, a bending angle of 180°, and a bending radius of 90mm.
[0048] Movement speed of bending die spherical bearing
[0049] sport time
[0050]
[0051] In the second step, the finite element method is used to establish a three-dimensional bending model, and the correction coefficient k is introduced into the quantitative relationship described in the first step. The formula after the correction coefficient is introduced is as follows:
[0052] Movement speed of bending die spherical bearing
[0053] The third step is to use the quantitative relationship after introducing the correction coefficient k as described in the second step as the bending parameter, take the initial value of k as 1, start the repeated iterative calculation of the bent pipe finite element, import the calculation results into the geometric software CATIA for pr...
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