A beam weighing 50 kg is attached to a pin at C and supported by a steel cable OA with Young'smodulus, E= 200 x 10° N/m2 as shown in Figure Q2. An inclined force of 5000 N is applied toend of the beam at point D with 40° angle measured from the x-Axis.5000 NSnaphoWel2.5 mB.888-888-4mBy providing your aautomateditext mermessaging eates may5 m3 mFigure Q2 Loadings on beamMy Textboa) Draw a free-body diagram of the beamSolunonsb) Calculate the tension of steel cable OAc) Determine the reaction forces of Fex and Feyd) Determine the elongation of steel cable OAbyChego

1) Free body diagram of the given beam is drawn below 2) To find Tension in the steel cable OA we…

A beam weighing 50 kg is attached to a pin at C and supported by a steel cable OA with Young's modulus, E- 200 x 10° N/m2 as shown in Figure Q2. An inclined force of 5000 N is applied to end of the beam at point D with 40 angle measured from the x-Axis. 5000 N 2.5 m mg 5 m 3 m Figure Q2 Loadings on beam a) Draw a free-body diagram of the beam b) Calculate the tension of steel cable OA c) Determine the reaction forces of Fex and Fo d) Determine the elongation of steel cable OA

A beam weighing 50 kg is attached to a pin at C and supported by a steel cable OA with Young's modulus, E- 200 x 10° N/m2 as shown in Figure Q2. An inclined force of 5000 N is applied to end of the beam at point D with 40 angle measured from the x-Axis. 5000 N 2.5 m mg 5 m 3 m Figure Q2 Loadings on beam a) Draw a free-body diagram of the beam b) Calculate the tension of steel cable OA c) Determine the reaction forces of Fex and Fo d) Determine the elongation of steel cable OA

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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