assume that the plane is rough. There is now a non-zero coefficient of kinetic (sliding) friction:...

 

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assume that the plane is rough. There is now a non-zero coefficient of kinetic (sliding) friction: H=.1 Also assume: 0= 12, g= 10 m/s. Finally, assume: The mass gets flicked Up the Plane with an initial velocity, % = 8 m/s. A. Acceleration Up i. Draw a System Schema focused on the mass of interest in this situation, i.e.: draw a circle to depict every object interacting with this mass; draw a line segment to depict every interaction. ii. Draw a Pure Free-Body-Diagram of the mass, i.e.: draw a vector arrow to depict the comparative magnitude and direction of every force acting on this mass. iii. Explicitly specify every Newton's 3rd Law (action/reaction') pair identified by your F-B-D; each pair should be written in the form [pulls] or [pushes] [up] or [down] or [to the left] or [to the right]', etc. assume that the plane is rough. There is now a non-zero coefficient of kinetic (sliding) friction: H=.1 Also assume: 0= 12, g= 10 m/s. Finally, assume: The mass gets flicked Up the Plane with an initial velocity, % = 8 m/s. A. Acceleration Up i. Draw a System Schema focused on the mass of interest in this situation, i.e.: draw a circle to depict every object interacting with this mass; draw a line segment to depict every interaction. ii. Draw a Pure Free-Body-Diagram of the mass, i.e.: draw a vector arrow to depict the comparative magnitude and direction of every force acting on this mass. iii. Explicitly specify every Newton's 3rd Law (action/reaction') pair identified by your F-B-D; each pair should be written in the form [pulls] or [pushes] [up] or [down] or [to the left] or [to the right]', etc.