(a)
The deflection under load.
(a)
Answer to Problem 3.48P
The deflection under load is
Explanation of Solution
Given:
The length of the beam is
The mass of the beam is
The diameter of the shaft is
Formula used:
The expression for the load is given as,
Here,
The expression for the moment of inertia of the shaft is given as,
The expression for the deflection is given as,
Here,
Calculation:
The value of load can be calculated as,
The value of moment of inertia of the shaft can be calculated as,
The value of young’s modulus of AISI 303 steel is
The value of deflection can be calculated as,
Conclusion:
Therefore, the deflection under load is
(b)
The diameter of the shaft made from 2024-T4 aluminum.
The diameter of the shaft made from architectural bronze.
The diameter of the shaft made from 99.5% titanium.
(b)
Answer to Problem 3.48P
The diameter of the shaft made from 2024-T4 aluminum is
The diameter of the shaft made from architectural bronze is
The diameter of the shaft made from 99.5% titanium is
Explanation of Solution
Calculation:
The value of young’s modulus of 2024-T4 aluminum is
The value of moment of inertia of the shaft made from 2024-T4 aluminum can be calculated as,
The value of the diameter of the shaft made from 2024-T4 aluminum can be calculated as,
The value of young’s modulus of architectural bronze is
The value of moment of inertia of the shaft made from architectural bronze can be calculated as,
The value of the diameter of the shaft made from architectural bronze can be calculated as,
The value of young’s modulus of 99.5% titanium is
The value of moment of inertia of the shaft made from 99.5% titanium can be calculated as,
The value of the diameter of the shaft made from 99.5% titanium can be calculated as,
Conclusion:
Therefore, the diameter of the shaft made from 2024-T4 aluminum is
Therefore, the diameter of the shaft made from architectural bronze is
Therefore, the diameter of the shaft made from 99.5% titanium is
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Chapter 3 Solutions
EBK MANUFACTURING PROCESSES FOR ENGINEE
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