A skeleton structure is proposed for its suspension part of a motor sports car, as shown in Fig.Q1. The three members are made from the same material having Young's modulus E and cross section area A and are hinged. Assuming the skeleton system is fixed at joint B and simply supported at joint C, and subjected to a downward vertical load P=100KN, 1. (a) determine the stiffness matrix for each of all three members, AB, AC and BC; assemble the system stiffness matrix for the whole skeleton structure; (b) calculate the deflections of the structure at joints A and C using finite element method. (c) The element stiffness matrix [k], can be given, C SC -C? -SC AE [k], = s - SC -s? SC (each symbol having its customary meaning.) 600 В y X (All dimensions in mm) Fig.Q1 000

A skeleton structure is proposed for its suspension part of a motor sports car, as shown in Fig.Q1. The three members are made from the same material having Young's modulus E and cross section area A and are hinged. Assuming the skeleton system is fixed at joint B and simply supported at joint C, and subjected to a downward vertical load P=100KN, 1. (a) determine the stiffness matrix for each of all three members, AB, AC and BC; assemble the system stiffness matrix for the whole skeleton structure; (b) calculate the deflections of the structure at joints A and C using finite element method. (c) The element stiffness matrix [k], can be given, C SC -C? -SC AE [k], = s - SC -s? SC (each symbol having its customary meaning.) 600 В y X (All dimensions in mm) Fig.Q1 000

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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