A car is moving downward on an inclined plane which makes an angle ϴ from the horizontal. The distance from the front wheel to the rear wheel of the car is 400 cm and its centroid is located at 50 cm from the surface of the plane. If only the rear wheels provide braking, what is the value of ϴ so that the car will start to slide if the coefficient of friction is 0.6?
A car is moving downward on an inclined plane which makes an angle ϴ from the...
The car shown supports it the total weight and the rear tire carries 60%. The car is on an incline having an angle o( with the horizontal X-axis. The coefficient of friction between the tires and ground is μ Given that W-3500 lbs and H 0.35 s weight "W" on its tires such as the front tire cames 40% of a) If both tires are locked with brakes, what is the maximum angle oc of the incline such as the...
A mass M slides downward along a rough plane surface inclined at angle \Theta\: Θ = 29.8 in degrees relative to the horizontal. Initially the mass has a speed V_0\: V 0 = 5.32 m/s, before it slides a distance L = 1.0 m down the incline. During this sliding, the magnitude of the power associated with the work done by friction is equal to the magnitude of the power associated with the work done by the gravitational force. What...
A mass M slides downward along a rough plane surface inclined at angle \Theta\: Θ = 31.7 in degrees relative to the horizontal. Initially the mass has a speed V_0\: V 0 = 6.9 m/s, before it slides a distance L = 1.0 m down the incline. During this sliding, the magnitude of the power associated with the work done by friction is equal to the magnitude of the power associated with the work done by the gravitational force. What...
A block of mass m is initially at rest at the top of an inclined plane, which has a height of 5.6 m and makes an angle of θ = 21° with respect to the horizontal. After being released, it is observed to be traveling at v = 0.55 m/s a distance d after the end of the inclined plane as shown. The coefficient of kinetic friction between the block and the plane is μp = 0.1, and the coefficient...
Problem 2: A brick of mass m is initially at rest at the highest point of an inclined plane, which has a height of 5.1 m and makes an angle of θ = 17° with respect to the horizontal. After being released, you perceive it to be traveling at v = 0.45 m/s a distance d after the end of the inclined plane as shown. The coefficient of kinetic friction between the brick and the plane is μp =0.1, and...
A loaded penguin sled weighing 89.0 N rests on a plane inclined at angle θ = 21.0° to the horizontal (see the figure). Between the sled and the plane, the coefficient of static friction is 0.260, and the coefficient of kinetic friction is 0.130. (a) What is the minimum magnitude of the forceF→, parallel to the plane, that will prevent the sled from slipping down the plane? (b) What is the minimum magnitude F that will start the sled moving up the plane? (c) What value of F is required to move the sled up...
Consider a box on an inclined plane. The inclination angle relative to the horizontal is θ = 30 ° and the mass of the body is 14.9 kg. What is the minimum coefficient of static friction required to keep the body from sliding down? Consider a box on an inclined plane. The inclination angle relative to the horizontal is θ = 30 ° and the mass of the body is 14.9 kg. What is the minimum coefficient of static friction...
1. An 8.25 kg sits at rest on an inclined plane with an angle of 18.8 degrees, 11.2 cm from the base of the inclined plane. The coefficient of static friction between the block and inclined plane is 0.55 The incline plane is slowly adjusted until the block starts sliding down the plane. At what angle will the block start moving? 2. A 12.0 kg sign hangs from the end of a 2.00 m long horizontal beam. What is the...
Consider a box on an inclined plane. The inclination angle relative to the horizontal is θ = 30 ° and the mass of the body is 14.9 kg. What is the minimum coefficient of static friction required to keep the body from sliding down?
a) Assuming that f=μN, show that the coefficient of (rolling) friction for the car moving down the inclined plane with a constant speed is gived by μ=m2/mccosθ. Use symbols, not numbers. b)Prove that θ is equal to μk when the blcok sldies down the incline with a constant speed?(use symbols not numbers) b2) if θ is the maximum angle of inlcline justbefore theblcok moves, what is μs in term of θ? c)suppose that the blcok were made to move up...