Verification Algorithm for Active Load of Auxiliary Springs with Non-end Contact End Reinforced Few-Piece Primary and Auxiliary Springs
A non-end, main and auxiliary spring technology, which is applied in the field of auxiliary spring acting load verification method, can solve the problem that can not meet the requirements of active load verification, can not meet the design requirements of the main and auxiliary springs with few pieces and variable cross-section, and the end reinforcement type Problems such as complex deformation calculation of few-piece variable-section leaf springs
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Embodiment 1
[0027] Embodiment 1: The number of pieces of a certain end-reinforced main spring with variable cross-section is N=2, wherein, half of the length of each main spring is L=575mm, width b=60mm, modulus of elasticity E=200GPa, and the root is straight segment thickness h 2 =10.72mm, half of the installation distance l 3 =55mm, the length of the oblique line Δl=30mm, the distance l from the root of the parabolic section of the main spring to the end point of the main spring 2 =L-l 3 =520mm; end thickness h of the parabolic segment of the first main spring 11p =5.9mm, the thickness ratio β of the parabolic segment of the first main spring 1 =h 11p / h 2=0.55; The end thickness h of the object line segment of the second main spring 12p =4.7mm, the thickness ratio β of the parabolic segment of the second main spring 2 = h 12p / h 2 =0.44; Thickness h of the end straight section of the first main spring 11 =6.9mm, the thickness h of the straight section at the end of the secon...
Embodiment 2
[0045] Embodiment 2: The number of sheets of a certain end-reinforced few-piece variable-section main spring is N=2, wherein, half of the length of each main spring is L=600mm, width b=60mm, modulus of elasticity E=200GPa, and the root is straight segment thickness h 2 =13.87mm, half of the installation distance l 3 =60mm, the length of the slanted line Δl=30mm, the distance l from the root of the parabolic section of the main spring to the end point of the main spring 2 =L-l 3 =540mm; end thickness h of the parabolic segment of the first main spring 11p =7.63mm, the thickness ratio β of the parabolic segment of the first main spring 1 = h 11p / h 2 =0.55; The end thickness h of the parabolic segment of the second main spring 12p =6.1mm, the thickness ratio β of the parabolic segment of the second main spring 2 =0.44; End thickness h of the end straight section of the first main spring 11 =8.93mm, the end thickness h of the end straight section of the second main spring...
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