The composite shaft, consisting of aluminium, copper, and steel sections, is subjected to the loading shown in Figure Q1. The modulus of elasticity of Aluminium Eal = 69GPA, modulus of elasticity of...


The composite shaft, consisting of aluminium, copper, and steel sections, is subjected<br>to the loading shown in Figure Q1. The modulus of elasticity of Aluminium Eal = 69GPA,<br>modulus of elasticity of Copper Ecu = 117 GPa and modulus of elasticity of Steel Eg =<br>200 GPa. The composite shaft is circular in shape.<br>50 mm<br>C<br>15 kN<br>В<br>30mm<br>30<br>10 kN<br>A<br>mm<br>15 kN<br>25 kN<br>10 kN<br>15 kN<br>w<br>500mm<br>500mm<br>500mm<br>Aluminium<br>Сорer<br>Ecu = 117 GPa<br>Steel<br>Eal = 69 GPa<br>Est = 200 GPa<br>Figure Q1<br>Calculate the total displacement for the composite structure.<br>(End D with respect to A)<br>

Extracted text: The composite shaft, consisting of aluminium, copper, and steel sections, is subjected to the loading shown in Figure Q1. The modulus of elasticity of Aluminium Eal = 69GPA, modulus of elasticity of Copper Ecu = 117 GPa and modulus of elasticity of Steel Eg = 200 GPa. The composite shaft is circular in shape. 50 mm C 15 kN В 30mm 30 10 kN A mm 15 kN 25 kN 10 kN 15 kN w 500mm 500mm 500mm Aluminium Сорer Ecu = 117 GPa Steel Eal = 69 GPa Est = 200 GPa Figure Q1 Calculate the total displacement for the composite structure. (End D with respect to A)

Jun 11, 2022
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