An Atwood's machine consists of masses m1 and m2, and a pulley of negligible mass and friction. Starting from rest, the speed of the two masses is 4.10 m/s at the end of 3.07 s. At that time, the kinetic energy of the system is 90.0 J and each mass has moved a distance of 6.30 m. Determine the lighter mass. Determine the heavier mass.

An Atwood's machine consists of masses m1 and m2, and a pulley of negligible mass and...
A simple Atwood's machine uses two masses, m1 and m2. Starting from rest, the speed of the two masses is 8.0 m/s at the end of 4.0 s. At that instant, the kinetic energy of the system is 90 J and each mass has moved a distance of 16.0 m. Determine the values of m1 and m2. m1= m2=
A simple Atwood's machine uses two masses, m1 and m2. Starting from rest, the speed of the two masses is 10.0 m/s at the end of 8.0 s. At that instant, the kinetic energy of the system is 90 J and each mass has moved a distance of 40.0 m. Determine the values of m1 and m2 kg m1 = kg
Conservative Forces and Potential Energy? A simple Atwood's machine uses two masses, m1 and m2. Starting from rest, the speed of the two masses is 6 m/s at the end of 5 s. At that instant, the kinetic energy of the system is 67 J and each mass has moved a distance of 15 m. Determine the values of m1 and m2
Atwood's Machine An Atwood's machine consists of two masses, m1 and m2. connected by a string that passes over a pulley. Part A If the pulley is a disk of radius R and mass M. find the acceleration of the masses.
An Atwood machine consists of two masses m1 and m2 (with m1 > m2 ) attached to the ends of a light string that passes over a light, frictionless pulley. When the masses are released, the mass m1 is easily shown to accelerate down with an acceleration a = g*(m1+m2)/)m1−m2 Suppose that m and are measured as m1 = 100 +- 1 gram and m2 = 50 +- 1 gram. Derive a formula of uncertainty in the expected acceleration in...
In the Atwood machine shown below, m1 = 2.00 kg and m2 = 6.00 kg. The masses of the pulley and string are negligible by comparison. The pulley turns without friction and the string does not stretch. The lighter object is released with a sharp push that sets it into motion at vi = 2.20 m/s downward. (a) How far will m1 descend below its initial level? 1 m In the Atwood machine shown below, m1 = 2.00 kg and...
4. A simple Atwood machine consists of two masses
m1 and m2 that are
connected by a string wound over a pulley, as seen in the figure
below. Assume m2 is larger than
m1. Motion in the upward direction is positive.
On a piece of paper, draw two free body diagrams; one for each of
the masses, showing all forces acting on each mass. Then answer the
following questions.
Suppose that m2 starts from rest at a height
of 7...
An Atwood's machine consists of two masses, mi and m2, which are connected by a massless inelastic cord that passes over a pulley. If the pulley has radius R and moment of inertia I about its axle, determine the acceleration of the masses mi and m2, and compare to the situation in which the moment of inertia of the pulley is ignored. [Hint: The tensions FTI and FT2 are not necessarily equal.] T2
Two blocks m1 and m2 with masses 50 kg and 100 kg respectively are connected by a string over a pulley that is frictionless with negligible mass. The 50 kg block slides on a 37 degree incline that has a coefficient of kinetic friction of 0.25. This block is also attached to a wall at the base of the incline by an ideal spring that has a spring coefficient of 100 N/m. The system is released from rest with a...
An Atwood's machine consists of two weights, m 3.4kg and m2 1.1 kg, connected by a by a string over a pulley of mass mp-2.3 kg and radius r-0.28 m. Assume the pulley is a uniform solid cylinder (disk) 1m7 177 The system is released from rest when mj is 2.7 m above the floor, and m2 begins on the floor. Assume there is no friction in the pulley. Take the ground to be the location of zero GPE kg...