A penguin of mass, m, is on an inclined surface (hill), as shown in the diagram. The inclined surface is atan angle of 0 from the flat ground. The coefficient of static friction, µs = 0.498 and the coefficient ofkinetic friction, Hg = 0.295. Also assume there is a force from gravity (i.e. the weight, W = mg, is pointedstraight down towards the ground, as always).a) Draw a free body diagram for the penguin, with the coordinate system rotated so that the x-axisis parallel to inclined plane (see Lecture 18, slide 5 for an example). You must draw thecoordinate system like we do in class. Label all forces. Note: in this coordinate system, theweight is not aligned with x or y, so make sure you also draw and label the components of theweight vector. Write the components of weight in terms of m, g, and 0.

Here, we rotate the plane to represent the x-axis and then resolve the weight components

Answered: A penguin of mass, m, is on an inclined…

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