Atwood Machine
What would the acceleration of the system be if the masses are equal (m1=m2)? What would the tension of the string be in this case? Explain why these values make sense in the context of Newton’s second law.
What would the acceleration of the system be if the mass of cylinder 2 is much greater than the mass of cylinder 1 (m2>>m1)? What would the tension of the string be in this case? Why or why not do these answers make sense?

Atwood Machine What would the acceleration of the system be if the masses are equal (m1=m2)?...
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...
an atwood machine with massless string and frictionless pulley has masses m1= 0.480 kg and m2=0.720 kg attached to it. derive the equations for and calculate the acceleration of the masses and the tension in the string
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 accelerationSuppose that m1 and m2 are measured as m1=100±1 gram and m2=50±1 gram. Derive a formula of the uncertainty in the expected acceleration in terms of the masses and their uncertainties, and then calculate δα for...
what combination of masses would make the acceleration of an atwood machine equal to 1/2 g?
QUESTION 1 An Atwood Machine consists of two masses connected to a cord which is draped over a pulley. In our experiment, what will be true about the masses? Mass 1 will vary with Mass 2 held constant. Mass 1 will vary with Mass 2 held constant. The masses will have a constant sum. The masses will have a constant mass difference. 3 points QUESTION 2 You will get a value for acceleration for each trial from a LoggerPro...
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...
5. 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.
(b) Using the direction rosette indicate the direction for each
of...
An Atwood machine is constructed of a solid-disk frictionless pulley of mass m3 and radius R. On the left side is hung a mass m1, and on the right the string is wound around a hollow cylinder of mass m2 and radius r (like a yoyo.) 1) For what mass ratio m2/m1 will mass m1 remain stationary, and what will the acceleration of mass m2 be? 2) Suppose m2 = 2*m1. For what mass m3 will the masses m1 and...
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...
tion 15 of 17 > Attempt 2 < Feedback An Atwood machine consists of two masses hanging from the ends of a rope that passes over a pulley. Assume that the rope and pulley are massless and that there is no friction in the pulley. If the masses have the values m = 18.7 kg and m2 = 13.7 kg, find the magnitude of their acceleration a and the tension in the rope. Use g -9.81 m/s Newton's second law...