Mass Ma lies on top of mass Mb, as shown. Assume Mb > Ma. The two blocks are pulled from rest by a massless rope passing over a pulley. The pulley is accelerated at rate A. Block Mb slides on the table without friction, but there is a constant friction force f between Ma and Mb due to their relative motion. Find the tension in the rope. 19:073GH.W.gravity.pdf →110FORCES AND EQUATIONS OF MOTIONHowever, the integral is simply the total mass of the sphere, and we findthat for r> R, the force between m and the sphere is identical to theforce between two particles m and M separated a distance r.ProblemsFor problems marked refer to page 520 for a hint, clue, oranswer.3.1 Leaning pole with frictionTwo identical masses M are pivoted at each end of a massless poleof length L. The pole is held leaning against frictionless surfaces atangle 6, as shown, and then released. Find the initial accelerationof cach mass.3.2 Sliding blocks with frictionMass MA = 4kg rests on top of mass Ma = 5 kg that rests on a frie-tionless table. The coefficient of friction between the two blocks is4 kg5 kgsuch that the blocks just start to slip whea the horizontal force Fapplied to the lower block is 27 N. Suppose that now a borizontal.force is applied to the upper block. What is its maximum value forthe blocks to slide without slipping relative to each other?3.3 Stacked blocks and pulleyMass M. lies on top of mass M, as shown. Assume M, > Ma.The two blocks are pulled from rest hy a massless rope passingover a pulley. The pulley is accelerated at rate A. Block M, slideson the table without friction, but there is a constant friction force fbetween M, and M, due to their relative motion. Find the tensionin the rope.CA3.4 SynchronoAS orbirFind the radius of the orbit of a synchronous satellite that circlesthe Earth. (A synchronous satellite goes around the Earth once ev-ery 24 h, so that its position appears stationary with respect to aground station.) The simplest way to find the answer and give yourresults is by expressing all distances in terms of the Earth's radiusRe453.5 Mass and axleA mass mis connected to a vertical revolving axle by two strings oflength I, cach making an angle of 45" with the axle, as shown. Boththe axle and mass are revolving with angular velocity a. Gravityis directed downward.(a) Draw a clear force diagram for m.(b) Find the tension in the upper string, Tup, and lower string,45

Answered: Image /qna-images/answer/4fd4c12f-86bb-4549-835c-5933144ef3eb.jpg

Mass M, lies on top of mass M, as shown. Assume M, > Ma. The two hlocks are pulled from rest hy a massless rope passing over a pulley. The pulley is accelerated at rate A. Block M, slides on the table without friction, but there is a constant friction force f between M, and M, due to their relative motion. Find the tension in the rope

Mass M, lies on top of mass M, as shown. Assume M, > Ma. The two hlocks are pulled from rest hy a massless rope passing over a pulley. The pulley is accelerated at rate A. Block M, slides on the table without friction, but there is a constant friction force f between M, and M, due to their relative motion. Find the tension in the rope

Similar questions

A body with mass m1 = 3.5 kg is on an inclined plane with an angle of 37º. It is connected by a rope passing over a pulley to another body with mass m2 = 5 kg hanging vertically. The coefficient of friction is μ = 0.2, and the system slides towards m2. Draw the force diagrams for each body and their components. Calculate the frictional force and the normal force acting on mass m1. Calculate the system's acceleration and the tension in the rope. If the inclined plane is 60 m long, determine the time it will take for m1 to travel this distance if it started from rest.
Block B in the figure weighs 601 N. The coefficient of static friction between block and table is 0.30; angle 0 is 31°; assume that the cord between B and the knot is horizontal. Find the maximum weight of block A for which the system will be stationary. Number Units B Knot A 0 >
Block B in the figure weighs 650 N. The coefficient of static friction between block and table is 0.21; angle 0 is 25°; assume that the cord between B and the knot is horizontal. Find the maximum weight of block A for which the system will be stationary. Number Knot B + Units 0
Somebody is riding a skateboard and holding a wire that is tied to a car. The wire makes a 17° angle with the horizontial. The tension on the wire is 175N. The friction between the skateboard and the road is 80N. They have a mass of 81kg. Create a free body diagram and find the acceleration.
A stuntman is being pulled along a rough road at a constant velocity by a cable attached to a moving truck. The cable is parallel to the ground. The mass of the stuntman is 105 kg, and the coefficient of kinetic friction between the road and him is 0.809. Find the tension in the cable.
Please answer this NEATLY, COMPLETELY, and CORRECTLY for an UPVOTE. Determine the force Q required to lift the 92-kg steel crate which rests against a 5° - wedge on a side and brick wall on the other side. The coefficient of frictions between the crate and wedge, wedge and surface, crate and surface are 0.45, 0.35, and 0.38, respectively. Use g=9.806 m/s2. Please, answer as soon as possible. Thank you.
An 80-kg block rests on a horizontal plane. Find the magnitude of the force P required to give the block an acceleration of 2.5m/s² to the right. The coefficient of kinetic friction between the block and the plane is μk = 0.25.
A small sphere of mass 2.50 g is released from rest in a large vessel filled with oil, where it experiences a resistive force proportional to its speed. The sphere reaches a terminal speed of 4.00 cm/s. Determine the time constant, and the time at which the sphere reaches 75.0% of its terminal speed.
An object of mass m is being acted by the following 3 forces: F1 = 500 N @ 45⸰ North of East, F2 = 750 N @ 30⸰ West of North and F3 = 400 N @ 30⸰ South of West. Find mathematically the magnitude and direction of a fourth force F4 that will maintain the object at equilibrium. Ignore the weight of the object. Provide free body diagram for the system and the sum of the forces along the axis.
Body A has a mass of 25 kg and body B has a mass of 50 kg. The coefficient of friction for all surfaces is 0.20. Find the minimum force P that can be applied to B without disturbing the equilibrium of the system.
Momo with mass m is sliding down an inclined plane that makes an angle O relative to the horizontal. The coefficient of kinetic friction between Momo and the inclined plane is uk. Obtain an expression for Momo's acceleration along the incline. Assign a rotated Cartesian plane so that the acceleration is along the positive x-axis and the normal force is along the positive y-axis. The component of the weight parallel to Momo's acceleration is wy = mg The magnitude of the frictional force is f = Hk The normal force on Momo is n = mg 0. With these expressions and applying Newton's second law, we arrive at an expression for Momo's acceleration: a =
Objects with masses m₁ = 11.0 kg and m₂ = 6.0 kg are connected by a light string that passes over a frictionless pulley as in the figure below. If, when the system starts from rest, m₂ falls 1.00 m in 1.64 s, determine the coefficient of kinetic friction between m₁ and the table. 54.39 X Express the friction force in terms of the coefficient of kinetic friction. Obtain an expression for the acceleration in terms of the masses and the net force, including friction, and solve for the coefficient of kinetic friction. m1 m₂