Reupload, answer in 10 minutes, need to recheck my solutions. Will upvote thank you. The framework of an under construction balcony is subjected to a distributed wind load of 600 N/m as shown. The framework has a fixed support at its base andis connected to a cable for added stability. The cable exerts a 70 N force on the framework.1. Which of the following provides the most ideally constructed force diagram for the problem?6.00mX3.00m600N/mB (3,6,0)á (6,0,2)сA.B.6.00mZAyMzAz6.00m7(6,2,1) 450 N(2,6,0) 900 N(1,6,0) 900 N(2,6,0) 1800 NMy◆MxAxAx3.00 mB (3,6,0)TBC(6,0,2)3.00mB (3,6,0)TBC(6,0,2)C.6.00mMz>+<2,6,0>x<0,0,-900 >+<3,6,0 > x 70 <->626.00m16000-000260-70-3M₂2 Azwing correctly gives the moment equilibrium equation of the problem?AxMyMxXAxX3.00m(3,6,0)D.2. Which of the following correctly gives the point of application and magnitude of the triangular distributed wind load??TBC(6,0,2)3.00m8 (3,6,0)TBC(6,0,2)

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The framework of an under construction balcony is subjected to a distributed wind load of 600 N/m as shown. The framework has a fixed support at its base and is connected to a cable for added stability. The cable exerts a 70 N force on the framework. 1. Which of the following provides the most ideally constructed force diagram for the problem? 6.00m 3.00 m 600 N/M 8 (૩,૮,૦) (6,0,2) 6.00m Ay M₂ My Mx Ax 3.00m B (3,6,0) Tac (6,0,2) 3.00m C. 6.00m 2 Az Ax 3.00m (3,6,0) Tac (6,0,2) 3.00m

The framework of an under construction balcony is subjected to a distributed wind load of 600 N/m as shown. The framework has a fixed support at its base and is connected to a cable for added stability. The cable exerts a 70 N force on the framework. 1. Which of the following provides the most ideally constructed force diagram for the problem? 6.00m 3.00 m 600 N/M 8 (૩,૮,૦) (6,0,2) 6.00m Ay M₂ My Mx Ax 3.00m B (3,6,0) Tac (6,0,2) 3.00m C. 6.00m 2 Az Ax 3.00m (3,6,0) Tac (6,0,2) 3.00m

International Edition---engineering Mechanics: Statics, 4th Edition

4th Edition

ISBN:9781305501607

Author:Andrew Pytel And Jaan Kiusalaas

Publisher:Andrew Pytel And Jaan Kiusalaas

Chapter4: Coplanar Equilibrium Analysis

Section: Chapter Questions

Problem 4.153P: Repeat Prob. 4.152 assuming that the 400-kN force is applied at O instead of L.

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