Pushing a Block and a Wedge0 points possible (ungraded)In the following problem, you are asked to:i) Define the system and the environment:Identify which objects - the environment - interact with the object of interest - the system. Justify your choice of system: woulda different choice also work? If not, why not? If so, why is the choice you made better?ii) Describe the interactions and the resulting forces:Identify the forces exerted on the object of interest by the other objects.iii) Draw the free body diagram of the object:Make sure that each force arrow is labeled with two subscripts - who is exerting the force and on whom is the force beingexerted. The length of the arrows should represent qualitatively the magnitude of the force.a)c)Mm0aFMm0A block of mass m rests on a frictionless wedge which has a mass M and whose surface makes an angle to the horizontal asCalculator Make sure that each force arrow is labeled with two subscripts - who is exerting the force and on whom is the force beingexerted. The length of the arrows should represent qualitatively the magnitude of the force.a)Mm0Submitac)FMmA block of mass m rests on a frictionless wedge which has a mass M and whose surface makes an angle to the horizontal asshown. An external force F is acting on the wedge causing it to move to the right with constant acceleration.a) Find the acceleration to the right such that the block m remains stationary relative to the wedge. Express your answer interms of m, 0, g, and M, as needed.b) Describe qualitatively the motion of the block if the wedge had a greater acceleration than the one obtained in a).c) What is the magnitude of the force F for which the two objects move with the same acceleration as in part a)? Express youranswer in terms of m, 0, g, and M, as needed.In your solution, clearly indicate the coordinate axes you will use to write the forces. Include all the relevant free body diagrams andlabel the forces with double subscript notation.Calculator

a) M m 0 a û F M m 0 A block of mass m rests on a frictionless wedge which has a mass M and whose surface makes an angle to the horizontal as shown. An external force F is acting on the wedge causing it to move to the right with constant acceleration. a) Find the acceleration to the right such that the block m remains stationary relative to the wedge. Express your answer in terms of m, 0, g, and M, as needed. b) Describe qualitatively the motion of the block if the wedge had a greater acceleration than the one obtained in a). c) What is the magnitude of the force F for which the two objects move with the same acceleration as in part a)? Express your answer in terms of m, 0, g, and M, as needed. In your solution, clearly indicate the coordinate axes you will use to write the forces. Include all the relevant free body diagrams and label the forces with double subscript notation.

a) M m 0 a û F M m 0 A block of mass m rests on a frictionless wedge which has a mass M and whose surface makes an angle to the horizontal as shown. An external force F is acting on the wedge causing it to move to the right with constant acceleration. a) Find the acceleration to the right such that the block m remains stationary relative to the wedge. Express your answer in terms of m, 0, g, and M, as needed. b) Describe qualitatively the motion of the block if the wedge had a greater acceleration than the one obtained in a). c) What is the magnitude of the force F for which the two objects move with the same acceleration as in part a)? Express your answer in terms of m, 0, g, and M, as needed. In your solution, clearly indicate the coordinate axes you will use to write the forces. Include all the relevant free body diagrams and label the forces with double subscript notation.

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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