A 24 mm diameter solid steel shaft supports loads PA = 1010 N, Pc = 3360 N, and PE = 860 N. Assume LAB = 77 mm, LBC = 200 mm, LcD = 77 mm, and LDE = 126 mm. The bearing at B can be idealized as a roller support and the bearing at D can be idealized as a pin support. Determine the magnitude and location of: (a) the maximum horizontal shear stress in the shaft. (b) the maximum tensile bending stress in the shaft. G A B LAB LBC C Pc LCD D LDE E
A 24 mm diameter solid steel shaft supports loads PA = 1010 N, Pc = 3360 N, and PE = 860 N. Assume LAB = 77 mm, LBC = 200 mm, LcD = 77 mm, and LDE = 126 mm. The bearing at B can be idealized as a roller support and the bearing at D can be idealized as a pin support. Determine the magnitude and location of: (a) the maximum horizontal shear stress in the shaft. (b) the maximum tensile bending stress in the shaft. G A B LAB LBC C Pc LCD D LDE E
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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I am having an issue finding the max moment. how do I do this problem.
![A 24 mm diameter solid steel shaft supports loads \( P_A = 1010 \, \text{N} \), \( P_C = 3360 \, \text{N} \), and \( P_E = 860 \, \text{N} \). Assume \( L_{AB} = 77 \, \text{mm} \), \( L_{BC} = 200 \, \text{mm} \), \( L_{CD} = 77 \, \text{mm} \), and \( L_{DE} = 126 \, \text{mm} \). The bearing at \( B \) can be idealized as a roller support and the bearing at \( D \) can be idealized as a pin support. Determine the magnitude and location of:
(a) the maximum horizontal shear stress in the shaft.
(b) the maximum tensile bending stress in the shaft.
**Diagram Explanation:**
The diagram shows a shaft supported at bearings B and D. The shaft carries three concentrated loads: \( P_A \) at point A, \( P_C \) at point C, and \( P_E \) at point E. The distances between these points are labeled: \( L_{AB} \), \( L_{BC} \), \( L_{CD} \), and \( L_{DE} \). The supports are depicted as a roller at B (allowing horizontal movement) and a pin at D (restricting horizontal movement). The forces are shown as downward arrows, indicating the direction of the applied loads on the shaft.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F919fc4f8-bc37-4123-8b2a-9ca8cd02385f%2F7eeb4d0a-2ce1-4981-a145-290810884949%2F2ukufv_processed.png&w=3840&q=75)
Transcribed Image Text:A 24 mm diameter solid steel shaft supports loads \( P_A = 1010 \, \text{N} \), \( P_C = 3360 \, \text{N} \), and \( P_E = 860 \, \text{N} \). Assume \( L_{AB} = 77 \, \text{mm} \), \( L_{BC} = 200 \, \text{mm} \), \( L_{CD} = 77 \, \text{mm} \), and \( L_{DE} = 126 \, \text{mm} \). The bearing at \( B \) can be idealized as a roller support and the bearing at \( D \) can be idealized as a pin support. Determine the magnitude and location of:
(a) the maximum horizontal shear stress in the shaft.
(b) the maximum tensile bending stress in the shaft.
**Diagram Explanation:**
The diagram shows a shaft supported at bearings B and D. The shaft carries three concentrated loads: \( P_A \) at point A, \( P_C \) at point C, and \( P_E \) at point E. The distances between these points are labeled: \( L_{AB} \), \( L_{BC} \), \( L_{CD} \), and \( L_{DE} \). The supports are depicted as a roller at B (allowing horizontal movement) and a pin at D (restricting horizontal movement). The forces are shown as downward arrows, indicating the direction of the applied loads on the shaft.
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VIEWStep 2: Draw FBD of given system and calculation of support reactions
VIEWStep 3: Calculation of shear force
VIEWStep 4: Calculation of the maximum horizontal shear stress in the shaft
VIEWStep 5: Calculation of the bending moment
VIEWStep 6: Calculation of the maximum tensile bending stress in the shaft
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