The complex air tank AB has an inner diameterof 450 mm and a uniform wall thickness of 6-mmand the gage pressure in the tank is 1.2 MPa asshown in Figure P10. Use this information toanswer questions 10 to 13.750 mm750 mmD5 KN500 mmFigure P10 ME 255 STRENGTH OF MATERIAL I10. Determine the stress due to bending at pointa on the top of the tank.(a) 22.50MPA(c) 45.0MPA(b) 3.88MPA(d) 7.75MPA11. Determine the stress due to bending at pointb on the top of the tank.(a) 22.50MPA(c) 45.0MPA(b) 3.88MPа(d) 7.75MPA12. Determine the tangential stress due topressure at points a and b on the top of thetank.(a) 22.50MPA(c) 45.0MPA(b) 3.88MPа(d) 7.75MPA13. Determine the axial stress due to pressure atpoints a and b on the top of the tank.(а) 22.50MPа(c) 45.0MPA(b) 3.88MPа(d) 7.75MPA

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Description: The complex air tank AB has an inner diameterof 450 mm and a uniform wall thickness of 6-mmand the gage pressure in the tank is 1.2 MPa asshown in Figure P10. Use this information toanswer questions 10 to 13.750 mm750 mmD5 KN500 mmFigure P10 ME 255

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The complex air tank AB has an inner diameter of 450 mm and a uniform wall thickness of 6-mm and the gage pressure in the tank is 1.2 MPa as shown in Figure PI0. Use this information to answer questions 10 to 13. 750 min 750 mi SAN 500 mm Figure P10

The complex air tank AB has an inner diameter of 450 mm and a uniform wall thickness of 6-mm and the gage pressure in the tank is 1.2 MPa as shown in Figure PI0. Use this information to answer questions 10 to 13. 750 min 750 mi SAN 500 mm Figure P10

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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