Design method for the thickness of the inner circular sleeve of the rubber bushing of the suspension stabilizer bar
A technology of rubber bushing and design method, applied in the direction of suspension, calculation, interconnection system, etc., can solve the problems of unable to meet the stabilizer bar system, no analytical calculation formula, failure to give, etc., to improve economic benefits and improve Design level, the effect of reducing design and test costs
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Embodiment 1
[0043] Embodiment one: the track B=1600mm of certain vehicle front axle, the structure of adopting stabilizer bar, as figure 2 As shown, among them, l c is the total length of the stabilizer bar, l c =800mm; l 1 is the arm length, l 1 =150mm; l 0 is the installation distance between rubber bushings, l 0 =400mm; R is the radius of the transition arc, R=50mm; θ is the central angle of the transition arc, θ=60°; the modulus of elasticity of the stabilizer bar material E=210GPa, Poisson's ratio μ=0.3. The structure of the rubber bushing is as follows image 3As shown, among them, the stabilizer rod 1, the inner circular sleeve 2, the rubber bush 3, the outer circular sleeve 4, the diameter d of the stabilizer rod 1 = 20mm, and the elastic modulus E of the rubber bush 3 x =7.84MPa, Poisson's ratio μ x =0.47, axial length L=25mm, outer circle radius r b =30mm, inner circle radius r a =(10+δ)mm, where δ is the parameter variable of the wall thickness δ of the rubber bush in...
Embodiment 2
[0073] Embodiment 2: The structural parameters of the front suspension of a certain vehicle, the structural parameters of the stabilizer bar, the inner circle radius of the suspension bushing and the material characteristic parameters are all identical to those of Embodiment 1, except that the front suspension stabilizer bar system requires The design requirements for roll angle stiffness are different, that is, Under the design requirements of the roll angle stiffness, the thickness δ of the inner sleeve of the rubber bushing is designed.
[0074] Using the design steps of Embodiment 1, the thickness δ of the inner circular sleeve of the rubber bushing of the front suspension stabilizer bar of the vehicle is designed. Because the structural parameters of the front suspension of the vehicle, the structural parameters of the stabilizer bar, the outer circle radius of the rubber bushing and the material characteristic parameters are all identical to those of Embodiment 1, only ...
Embodiment 3
[0076] Embodiment three: the wheelbase B=1600mm of the front axle of a certain vehicle, the structure and material of the stabilizer bar adopted are exactly the same as that of embodiment one, the diameter d of the stabilizer bar=21mm; the installation distance l between the two rubber bushes 0 =400mm, the outer circle radius r of the rubber bushing b =30.5mm, axial length L=25mm; elastic modulus E of rubber bushing x =7.84MPa, Poisson's ratio μ x = 0.47. The design requirement value of the roll angle stiffness of the front suspension stabilizer bar system of the vehicle Under the given installation position of the stabilizer bar and the rubber bushing, the thickness δ of the inner circle sleeve of the rubber bushing is designed.
[0077] Adopt the design procedure of embodiment one, design the inner circle sleeve thickness δ of the rubber bushing of the front suspension stabilizer bar of this car: (1) calculate the vertical displacement deformation coefficient G of the en...
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