A pressure vessel is exposed to a combination of loads as shown below. The vessel (diameter 100 mm) has a wall thickness of 3 mm. Address the following: alf the yield strength of the material is 144 MPa, determine the largest tension force P with respect to a factor of safety of 2 applied to the distortional energy theory. appl and tension load were removed, determine o the distortional energy theory. Illustrate y or of safety velope.
A pressure vessel is exposed to a combination of loads as shown below. The vessel (diameter 100 mm) has a wall thickness of 3 mm. Address the following: alf the yield strength of the material is 144 MPa, determine the largest tension force P with respect to a factor of safety of 2 applied to the distortional energy theory. appl and tension load were removed, determine o the distortional energy theory. Illustrate y or of safety velope.
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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![### Problem Statement:
A pressure vessel is exposed to a combination of loads as shown below. The vessel (diameter 100 mm) has a wall thickness of 3 mm. Address the following:
1. If the yield strength of the material is 144 MPa, determine the largest tension force \( P \) with respect to a factor of safety of 2 applied to the distortional energy theory.
### Diagram Explanation:
- **Description**: A cylindrical pressure vessel is depicted, showing the points where external forces and moments are acting.
- **Forces and Moments**:
- The internal pressure \( p = 3.5 \) MPa.
- There is a twisting moment \( T = 450 \) N-m applied along the axis of the cylinder.
- The axial tension force \( P \) is applied horizontally at both ends of the cylinder.
This educational content focuses on understanding the application of mechanical properties and safety factors in engineering design using a practical example of a pressure vessel subject to combined loading scenarios.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F4c49c29d-b734-4891-8a07-7c122a77a78d%2F38019bc7-5290-4ede-8325-c1d66fe23177%2Frj8hg2o_processed.jpeg&w=3840&q=75)
Transcribed Image Text:### Problem Statement:
A pressure vessel is exposed to a combination of loads as shown below. The vessel (diameter 100 mm) has a wall thickness of 3 mm. Address the following:
1. If the yield strength of the material is 144 MPa, determine the largest tension force \( P \) with respect to a factor of safety of 2 applied to the distortional energy theory.
### Diagram Explanation:
- **Description**: A cylindrical pressure vessel is depicted, showing the points where external forces and moments are acting.
- **Forces and Moments**:
- The internal pressure \( p = 3.5 \) MPa.
- There is a twisting moment \( T = 450 \) N-m applied along the axis of the cylinder.
- The axial tension force \( P \) is applied horizontally at both ends of the cylinder.
This educational content focuses on understanding the application of mechanical properties and safety factors in engineering design using a practical example of a pressure vessel subject to combined loading scenarios.
Expert Solution
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Step 1: Determine the given variables
Given data:
To find:
(a) The tension force P according to distortional energy theory.
(b) The minimum wall thickness.
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