A uniform rod of mass 315 g and length 50.0 cm rotates in a horizontal plane about a fixed, vertical, frictionless pin through its center. Two small, dense beads, each of mass m, are mounted on the rod so that they can slide without friction along its length. Initially the beads are held by catches at positions 10 cm on each side of center, and the system is rotating at an angular speed of 33.0 rad/s. The catches are released simultaneously, and the small beads slide outward along the rod. (a) Find an expression for the angular speed we of the system at the instant the beads slide off the ends of the rod as it depends on m. wf = rad/s (b) What are the maximum and the minimum possible values for w, and the values of m to which they correspond? rad/s Wf max when m = ---Select--- ✓ Wf min when m = ---Select--- rad/s

Physics for Scientists and Engineers with Modern Physics
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ISBN:9781337553292
Author:Raymond A. Serway, John W. Jewett
Publisher:Raymond A. Serway, John W. Jewett
Chapter11: Angular Momentum
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A uniform rod of mass 315 g and length 50.0 cm rotates in a horizontal plane about a fixed, vertical, frictionless pin through
its center. Two small, dense beads, each of mass m, are mounted on the rod so that they can slide without friction along its
length. Initially the beads are held by catches at positions 10 cm on each side of center, and the system is rotating at an
angular speed of 33.0 rad/s. The catches are released simultaneously, and the small beads slide outward along the rod.
(a) Find an expression for the angular speed we of the system at the instant the beads slide off the ends of the rod
as it depends on m.
Wf =
(b) What are the maximum and the minimum possible values for w, and the values of m to which they correspond?
rad/s
Wf max
when m = ---Select---
rad/s
Wf min =
when m = ---Select---
rad/s
Transcribed Image Text:A uniform rod of mass 315 g and length 50.0 cm rotates in a horizontal plane about a fixed, vertical, frictionless pin through its center. Two small, dense beads, each of mass m, are mounted on the rod so that they can slide without friction along its length. Initially the beads are held by catches at positions 10 cm on each side of center, and the system is rotating at an angular speed of 33.0 rad/s. The catches are released simultaneously, and the small beads slide outward along the rod. (a) Find an expression for the angular speed we of the system at the instant the beads slide off the ends of the rod as it depends on m. Wf = (b) What are the maximum and the minimum possible values for w, and the values of m to which they correspond? rad/s Wf max when m = ---Select--- rad/s Wf min = when m = ---Select--- rad/s
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