Problem B3. A solid cylinder is supported on an inclined plane by a chord parallel R to the plane at a distance of above the radius of the cylinder. The cylinder has a 3 radius of 2.00 m, its mass is 20.0 kg, and the inclined plane has an inclination of 20°. The coefficient of kinetic friction between the cylinder and the plane is 0.20 and the coefficient of static friction is 0.30. The cylinder remains in static equilibrium. 20 Figure B3. Problem diagram B3 a) Make a free-body diagram for the solid cylinder.

Problem B3. A solid cylinder is supported on an inclined plane by a chord parallel R to the plane at a distance of above the radius of the cylinder. The cylinder has a 3 radius of 2.00 m, its mass is 20.0 kg, and the inclined plane has an inclination of 20°. The coefficient of kinetic friction between the cylinder and the plane is 0.20 and the coefficient of static friction is 0.30. The cylinder remains in static equilibrium. 20 Figure B3. Problem diagram B3 a) Make a free-body diagram for the solid cylinder.

Physics for Scientists and Engineers: Foundations and Connections

1st Edition

ISBN:9781133939146

Author:Katz, Debora M.

Publisher:Katz, Debora M.

Chapter14: Static Equilibrium, Elasticity, And Fracture

Section: Chapter Questions

Problem 64PQ: A One end of a metal rod of weight Fg and length L presses against a corner between a wall and the...

See similar textbooks

Similar questions

In the figure, horizontal scaffold 2, with uniform mass m2 = 29 kg and length L2 = 2.3 m, hangs from horizontal scaffold 1, with uniform mass m1 = 54 kg. A 17 kg box of nails lies on scaffold 2, centered at distance d = 0.80 m from the left end. What is the tension T in the cable indicated?
a 50.0 kg uniform square sign, of edge length L=2.00m, is hung from a horizontal rod of length dh = 3.00 m and negligible mass. A cable is attached to the end of the rod and to a point on the wall at distance dv = 4.00 m above the point where the rod is hinged to the wall. (a) What is the tension in the cable? What are the (b) magnitude and (c) direction (left or right) of the horizontal component of the force on the rod from the wall, and the (d) magnitude and (e) direction (up or down) of the vertical component of this force?
A person pushing a horizontal, uniformly loaded, 27.15 kg27.15 kg wheelbarrow of length ?L is attempting to get it over a step of height ℎ=0.370?,h=0.370R, where ?R is the wheel's radius. The center of gravity of the wheelbarrow is in the center of the wheelbarrow. What is the horizontal component ??Px of the minimum force ?⃗ P→ necessary to push the wheelbarrow over the step? The gravitational acceleration is ?=9.81 m/s2.
A man stands a distance d = 0.275 m from the left end of a platform as shown in the figure. The platform is supported by three cables. Find the tension in each cable (in N). Assume the platform is uniform, with length L = 2.00 m and mass 35.0 kg, and the weight of the man is 690 N. (Due to the nature of this problem, do not use rounded intermediate values in your calculations—including answers submitted in WebAssign.) (b). What If? The man now begins to walk to the right. If each of the cables can support a maximum tension of 800 N, which cable fails first? At what location does this occur (measured in m from the left end of the platform)?
A uniform horizontal beam 5.00 m long and weighting 3.03 102 N is attached to a wall by a pin connection that allows the beam to rotate. Its far end is supported by a cable that makes an angle of 53.0° with the horizontal (Figure (a)). If a person weighing 6.05 102 N stands 1.60 m from the wall, find the magnitude of the tension in the cable and the force exerted by the wall on the beam. T = N Rx = N Ry = N Even if we selected some other axis for the torque equation, the solution would be the same. For example, if the axis were to pass through the center of gravity of the beam, the torque equation would involve both T and Ry. Together with Equations (1) and (2), however, the unknowns could still be found—a good exercise. In this example, notice the steps of the Problem-Solving Strategy could be carried out in the explicit recommended order.QUESTION What happens to the tension in the cable if the man in Figure (a) moves farther away from the wall? The tension would…
A ladder of length L = 2.4 m and mass m = 14 kg rests on a floor with coefficient of static friction μs = 0.55. Assume the wall is frictionless. 1) What is the minimum angle the ladder must make with the floor to not slip? 2) A person with mass M = 61 kg now stands at the very top of the ladder. What is the minimum angle to keep the ladder from sliding?
A uniform plank of length 2.00 m and mass 30.0 kg is supported by three ropes, as indicated by the blue vectors. Find the tension in each rope when a 700 N person is d = 0.500 m from the left end
A One end of a metal rod of weight Fg and length L presses against a corner between a wall and the floor (Fig. P14.64). A rope is attached to the other end of the rod. Find the magnitude of the tension in the rope if the angle between the rod and the rope is 90.
A box on a 15-degree incline weighs 350N. Given that the system is in static equilibrium and us = 0.55 and uk = 0.42.a. what's the normal force (N) magnitude and what's its angle of direction with respect to the positive x-axis?b. what's the frictional force magnitude and it's angle of direction with respect to the positive x-axis?Now, a rope creates a tension T to pull the box in the direction 30 degrees upward with respect to the incline. This makes the box impending to slide.c. what's the magnitude of Td. what's the magnitude of N
Suppose the length L of a uniform bar is 3.20 m and its mass M =15.2 Kg. Also, m1 = 11.4 kg, m2 = 24.8 kg, m3 = 17.3 kg, and the angle θ = 32 ̊. The distance from wall to the center of mass of m1 is 1.02 m, m2 is 2.10 m, and m3 is 3.20 m. What is the tension in the wire?
Two Boy Scouts, Bobby and Jimmy, are carrying a uniform wooden tent pole 4.80 m in length and having mass m = 30.0 kg. Bobby is holding the pole 65.0 cm from the back, and Jimmy is holding the pole 37.0 cm from the front. If the pole is held horizontally by the two boys, what is the force Bobby and Jimmy each exert on the beam? (Enter the magnitude.) Fbobby = ________ N Fjimmy = ________ N
A uniform plank of length 2.00 m and mass 31.5 kg is supported by three ropes, as indicated by the blue vectors in the figure below. Find the tension in each rope when a 715–N person is d = 0.500 m from the left end. magnitude of T1 N magnitude of T2 N magnitude of T3 N