4. The frame in the following figure is subjected to a wind loading that creates a uniform normal pressure of 0.0024V² on the windward side and a suction pressure of 0.0008V² on the leeward side. Note that V denotes wind speed in miles per hour (mph). If the frame can withstand the wind speed of 150 mph, determine the minimum shear capacity and moment capacity of the elements of the frame. Hint: You need to draw shear and moment diagrams. The shear capacity of the elements of the frame should be larger than the maximum absolute shear in the shear diagram. The same applies to moment capacity.

4. The frame in the following figure is subjected to a wind loading that creates a uniform normal pressure of 0.0024V² on the windward side and a suction pressure of 0.0008V² on the leeward side. Note that V denotes wind speed in miles per hour (mph). If the frame can withstand the wind speed of 150 mph, determine the minimum shear capacity and moment capacity of the elements of the frame. Hint: You need to draw shear and moment diagrams. The shear capacity of the elements of the frame should be larger than the maximum absolute shear in the shear diagram. The same applies to moment capacity.

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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