Using the maximum distortional energy theory and the stress concentration figures given in section 4.12, find the maximum diameter of the radial hole (d) for a safety factor of n = 1.8. The torsion applied to the shaft is T = 400 Nm, the diameter of the shaft is D 30 mm and the yield strength of the material is Sy = 460 MPa. Based on the stress concentration figure, assume an initial K₁ value and then revise your solution once you have determined an initial d. = T T

Using the maximum distortional energy theory and the stress concentration figures given in section 4.12, find the maximum diameter of the radial hole (d) for a safety factor of n = 1.8. The torsion applied to the shaft is T = 400 Nm, the diameter of the shaft is D 30 mm and the yield strength of the material is Sy = 460 MPa. Based on the stress concentration figure, assume an initial K₁ value and then revise your solution once you have determined an initial d. = T T

Structural Analysis

6th Edition

ISBN:9781337630931

Author:KASSIMALI, Aslam.

Publisher:KASSIMALI, Aslam.

Chapter2: Loads On Structures

Section: Chapter Questions

Problem 1P

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Time and time related variables in engineering

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Using the maximum distortional energy theory and the stress concentration figures given in section
4.12, find the maximum diameter of the radial hole (d) for a safety factor of n = 1.8. The torsion
applied to the shaft is T = 400 Nm, the diameter of the shaft is D = 30 mm and the yield strength
of the material is Sy = 460 MPa. Based on the stress concentration figure, assume an initial K₁
value and then revise your solution once you have determined an initial d.
T
T
CS ESC

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