• Title/Summary/Keyword: Automotive pedal arm

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Shape Optimal Design of an Automotive Pedal Arm Using the Taguchi Method (다구찌 기법을 이용한 자동차 페달 암의 형상 최적설계)

  • Lee, Boo-Youn;Lee, Hyun-Woo
    • Journal of the Korean Society for Precision Engineering
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    • v.24 no.3 s.192
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    • pp.76-83
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    • 2007
  • The Taguchi method is applied to obtain the optimal design of an automotive pedal arm in consideration of the stiffness test specification. Design parameters are defined to describe shape of the pedal arm. Volume, maximum Von-Mises stress and maximum displacement of the pedal arm are established as the smaller-the-better characteristics. Optimal parameters are determined on the basis of the analyzed level averages of the characteristics.

Structural Analysis and Topology Optimization of an Automotive Pedal Arm Considering Qualification Test Specifications (시험 규격을 고려한 자동차 페달 암의 구조해석과 위상최적화)

  • Lee Boo-Youn;Lee Hyun-Woo
    • Journal of Advanced Marine Engineering and Technology
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    • v.30 no.5
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    • pp.562-571
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    • 2006
  • Finite element analysis is performed to evaluate structural reliability of an automotive pedal arm under conditions of the stiffness, the load and the endurance test specifications. Results of the analysis shows that the pedal arm is safe enough under the tests. A topology optimization is numerically implemented, overall shape of the pedal arm being verified to be reasonable, A design concept to insert holes in the arm is established, which may be used to reduce its weight.

Shape Optimal Design to Minimize the Weight of the Pedal Arm of an Automotive Clutch (자동차 클러치 페달 암의 무게 최소화를 위한 형상 최적설계)

  • Lee, Boo-Youn;Lee, Hyun-Woo
    • Transactions of the Korean Society of Mechanical Engineers A
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    • v.31 no.2 s.257
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    • pp.269-276
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    • 2007
  • Optimal thickness and shape of the pedal arm of an automotive clutch is determined, using the numerical optimization technique, by solving the size and shape optimization problems to minimize its weight. For the optimization problems, two cases of stress and displacement constraints are considered: one from the vertical, and the other from the transverse stiffness test condition. The result of the transverse case is shown to be more conservative than that from the vertical case, being determined as the final optimum.