in such kind of scenario
acceleration of hanging block m1 is determined by following formula ;
where I is moment of inertia of pulley of radius R
here
m1= 2kg, m2=3kg and I= 0.006kg-m2, R=0.07 m
thus
Part B;
Angular acceleration of pulley
In the figure, two blocks, of masses 2.00 kg and 3.00 kg, are connected by a...
In the figure, two blocks, of masses 2.00 kg and 3.00 kg, are connected by a light string that passes over a frictionless pulley of moment of inertia 0,00400 kg m^2 and radius 5.00 cm. The of friction for the tabletop is 0.300. The blocks are released from rest. a) What is the acceleration of the system b) Find the speed of the blocks just as the system has moved 0.600 m.
In the figure, two blocks, of masses 200 kg and 300 kg are connected by a light string that passes over a frictionless pulley of moment of inertia 0.00400 kg middot m2 and radius 5.00 cm. The coefficient of friction for the tabletop is 0.300. The blocks are released from rest. What is the acceleration of the system Find the speed of the blocks just as the system has moved 0.600m.
Two blocks of mass m_1 = 3.00 kg and m_2 = 7.00 kg are connected by a massless string that passes over a frictionless pulley (see the figure below). The inclines are frictionless Find the magnitude of acceleration of each block. m/s^2 Find the tension in the string. N
In the figure, two 6.20 kg blocks are connected by a massless string over a pulley of radius 2.40 cm and rotational inertia of 7.40 Times 10^-1 kg m^2. The string does not slip on the pulley; and there is no friction between the table and the sliding block; the pulley's axis is frictionless. When this system is released from rest the pulley turns through 1.30 rad in 91.0 ms and the acceleration of the blocks is constant. What are...
In the figure, two 5.60 kg blocks are connected by a massless string over a pulley of radius 2.20 cm and rotational inertia 7.40 times 10^-4 kg-m^2. The string does not slip on the pulley; it is not known whether there is friction between the table and the sliding block; the pulley's axis is frictionless. When this system is released from rest, the pulley turns through 1.00 rad in 179 ms and the acceleration of the blocks is constant. What...
In the figure, two 5.10 kg blocks are connected by a massless string over a pulley of radius 2.50 cm and rotational inertia 7.40 x 10-4 kg.m2. The string does not slip on the pulley; it is not known whether there is friction between the table and the sliding block; the pulley's axis is frictionless. When this system is released from rest, the pulley turns through 0.600 rad in 109 ms and the acceleration of the blocks is constant. What...
two blocks of masses 2.00kg and 3.00kg are connected by a light string that passes over a friction less pulley of moment of inertia 0.00400 kg x m2 and radius of 5.00cm. the coefficient of friction for the tabletop upon which the 3.00kg block rests is 0.300. the blocks are released from rest. using energy methods, find the speed of the upper block just as it has moved 0.600m.
Two objects with masses of m_1 = 2.00 kg and m_2 = 8.00 kg are connected by a light string that passes over a frictionless pulley, as in the figure below. Determine the tension in the string. (Enter the magnitude only.) Determine the acceleration of each object. (Enter the magnitude only.) Determine the distance each object will move in the first second of motion if both objects start from rest.
Problem 2: (6 pts) ) Two masses are connected by a string as shown in the figure below. Mass mB = 2.00 kg moves up while mA 12.0 kg moves down a frictionless inclined. The pulley is frictionless and has a mass M-2.00 kg, and a radius R-0.200 m (1= ½ MR) (a) Draw the free body diagram for the masses and pulley separately. (b) Use Newton's Second Law of Motion to find the resulting acceleration (2pts) (2pts) (2pts) of...
As shown in the figure below, two blocks are connected by a string of negligible mass passing over a pulley of radius 0.270 m and moment of inertia I. The block on the frictionless incline is moving with a constant acceleration of magnitude a = 1.20 m/s2. (Let m1 = 15.5 kg, m2 = 22.0 kg, and θ = 37.0°.) From this information, we wish to find the moment of inertia of the pulley. (a) What analysis model is appropriate...