A small coin of mass m1 is undergoing a uniform circular motion at a velocity v. The radius of the circular path is r. A piece of putty of mass m2 is dropped onto the coin. The new velocity of the coin-putty system is
a. v
b. m1v/m2
c. m2v/m1
d. m1v/(m1 +m2)
e. m2v/(m1 +m2)

A small coin of mass m1 is undergoing a uniform circular motion at a velocity v....
a. What should m2 be so that m1 slides in uniform circular motion in a circle with radius R and speed v? b.Evaluate your result for R = 0.55m , v = 0.80m/s , and m1 = 0.35kg .
1. A small object is undergoing uniform circular motion. The uniform circular motion is caused by a force that is directed toward the center of the circle. What is the work done by this force during one rotation of circular motion?
In the figure we see a mass m2=0.2 kg undergoing circular motion
of radius 0.5 m on a frictionless table. The second mass, m1=0.3
kg, is attached to m2 with a string and hangs down below the
tabletop. How fast does m2 have to be moving so that m1 remains
stationary?
In the figure we see a mass m2=0.2 kg undergoing circular motion of radius 0.5 m on a frictionless table. The second mass, m1=0.3 kg, is attached to m2...
A small object of mass m1 moves in a circular path of radius r on a frictionless horizontal tabletop. It is attached to a string that passes through a frictionless hole in the center of the table. A second object with a mass of m2 is attached to the other end of the string. Derive an expression for r in terms of m1, m2, and the time T for one revolution. (Use any variable or symbol stated above along with the...
Understand how to find the equation of motion of a particle undergoing uniform circular motion. Consider a particle--the small red block in the figure--that is constrained to move in a circle of radius R. We can specify its position solely by θ(t), the angle that the vector from the origin to the block makes with our chosen reference axis at time t. Following the standard conventions we measure θ(t) in the counterclockwise direction from the positive x axis. (Figure 1)...
1).In a uniform circular motion, instantaneous velocity is tangent to the circle a) True b) False c) Can's say 2).In a uniform circular motion, acceleration is normal to the velocity and directed toward the center a) True b) False c) Unknown 3). For a particle of mass 'm' moving with a uniform velocity 'v' in a circle of radius 'r', write the expression for centripetal force (Fc)? 4). If a particle rotates in a circle of radius r= 10 cm...
1). In a uniform circular motion, instantaneous velocity is tangent to the circle a) True b) False c) Can's say 2).In a uniform circular motion, acceleration is normal to the velocity and directed toward the center a) True b) False c) Unknown 3). For a particle of mass 'm' moving with a uniform velocity 'v'in a circle of radius 'r', write the expression for centripetal force (Fc)? 4). If a particle rotates in a circle of radius r = 10...
True or False, no explanation needed. ( ) A charge with a velocity perpendicular to a uniform B field will move in a circular path in a plane perpendicular to the B field. ( ) A charge with a velocity perpendicular to a uniform B field will experience a magnetic force of F=qvB ( ) For a mass m to maintain a circular motion on an orbit of radius r, the needed centripetal force is mv/r. ( ) For a...
4. Determine the motion of the center of mass using Allyson's Method. In the motion diagram below mt and m2 make up a system of two particles. Assume that mi is moving in the +x direction as indicated by the equally spaced interval of dots and that m2 is stationary. If the masses are equal (m1 m2) the velocity of the center of mass is found by first connecting a series of lines from each successive "m1 position dot" to...
A body rotates with a uniform circular motion. In what situation is the centripetal force greater? Situation A. The body rotates with a radius R, mass m and speed 2V Situation B: The body rotates with a radius R, mass 2m and speed V Situation C: The body rotates with a radius 2R, mass m and speed V a) Situation A b) Situation B c) Situation C d) In all three situations the centripetal force is equal