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Video Clips

RealVideo®
4:36 minutes (46:53 - 51:29)
Demonstration of failure of simple harmonic motion for ball in circular well; calculation of T does not agree with SHM.
Oscillation in Circular Well II (32:46 of V13)
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RealVideo®
6:12 minutes (0:00 - 6:12)
Correspondence between rotational and linear motion; X->θ, v->ω, a->α, m->I.
Uniform Circular Motion (beginning of V5)
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RealVideo®
7:33 minutes (6:12 - 13:45)
Moments for disk, sphere, rod; parallel axis theorem; perpendicular axis theorem.
Rotational Motion (beginning of V19)
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RealVideo®
7:07 minutes (13:45 - 20:52)
Conversion of linear KE to rotational KE; calculation of flywheel dimensions to store braking energy in car.
Rotational Kinetic Energy
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RealVideo®
8:49 minutes (20:52 - 29:41)
Conversion of rotational KE to linear KE from car flywheel; rotational KE of sun, earth and potential for use.
Rotational Kinetic Energy
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RealVideo®
11:05 minutes (29:41 - 40:46)
Decreasing period of Crab nebula; images of magnet flywheels, stroboscopic images of Crab, X-ray image from Chandra.
Energy from Spindown (20:52 of V19)
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RealVideo®
8:42 minutes (0:00 - 8:42)
Calculation of acceleration based on Newton's second law.
Rotational Kinematics (beginning of V19)
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RealVideo®
5:22 minutes (8:42 - 14:04)
Proof that acceleration is independent of M, R; a for various geometries, with demonstration.
Acceleration of a Pure Roll (beginning of V24)
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RealVideo®
10:18 minutes (36:29 - 46:47)
Acceleration of rolling down slope calculated; analysis of friction force and minimum μs for rolling.
Rotational Kinematics (beginning of V19)
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RealVideo®
2:48 minutes (46:47 - 49:35)
Explanation of longer than expected period for ball rolling on circular track in simple harmonic motion using rotational energy.
Ball in Circular Well (46:53 of V13), Rotational Kinematics (beginning of V19), Simple Harmonic Motion
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Lecture Notes

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Page 1
Summary of analogies between rotation and linear motion.
None
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PDF - 1.6 MB
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Page 1 to page 2
Rotation about a fixed axis; definitions of angular velocity and angular acceleration; Right-hand rule; rotational motion with constant angular acceleration; relationship between angular velocity, linear velocity, and acceleration, with example.
Lecture 17
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PDF - 1.6 MB
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Page 3 to page 6
Definition of rotational kinetic energy, with example; definition of moment of inertia for a rigid body; moment of inertia example.
Rigid Body Kinematics
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PDF - 1.7 MB
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Page 1 to page 6
Torque and force; angular momentum and torque; torque and angular momentum of a conical pendulum; torque and angular acceleration; rigid body angular acceleration, with examples; torque due to gravity, with examples; conservation of angular momentum.
Lecture 22
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PDF - 1.6 MB
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Page 1
Rotational dynamics examples, including particle on a string and spinning bicycle wheel.
Lecture 23
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PDF - 1.6 MB
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Page 1 to page 6
Work-energy theorem in rotational motion, with examples; angular impulse, with example; decomposition of displacement into translation and rotation; rolling motion of cylinders and spheres.
Lecture 23
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PDF - 1.3 MB
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Page 1 to page 5
Rolling motion of a rigid body, such as a cylinder or a sphere, with several examples; angular momentum and collisions, with example; gyroscope precession.
Lecture 24
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PDF - 1.2 MB
Page 1 to page 10
Rotation about a fixed axis; definitions of angular velocity and angular acceleration; right-hand rule; rotational motion with constant angular acceleration; relationship between angular velocity, linear velocity, and acceleration, with example.
Lecture 17
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PDF - 1.2 MB
Page 11 to page 16
Definition of rotational kinetic energy, with example; definition of moment of inertia for a rigid body; table of rotational inertia values for various objects; moment of inertia example.
Rigid Body Kinematics
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PDF
Page 1 to page 20
Torque and force; angular momentum and torque; torque and angular momentum of a conical pendulum; torque and angular acceleration; rigid body angular acceleration, with examples; torque due to gravity, with examples; conservation of angular momentum.
Lecture 22
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PDF
Page 1 to page 3
Rotational dynamics examples, including particle on a string and spinning bicycle wheel.
Lecture 23
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Page 4 to page 19
Work-energy theorem in rotational motion, with examples; angular impulse, with example; decomposition of displacement into translation and rotation; rolling motion of cylinders and spheres.
Lecture 23
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PDF
Page 1 to page 17
Rolling motion of a rigid body, such as a cylinder or a sphere, with several examples; angular momentum and collisions, with example; gyroscope precession.
Lecture 24
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PDF
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Page 1 to page 2
Vector associated with angular motion (right-hand rule); angular velocity and angular acceleration defined; tangential and radial acceleration defined; rolling without slipping.
Linear Kinematics
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PDF
Page 1 to page 2
Torque defined; conditions for rotational static equilibrium; torque and rotational dynamics; moment of inertia; parallel axis theorem.
Rotational Kinematics
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Page 1
Simple and physical pendulums defined, with equations for period; parallel axis theorem defined; kinetic energy of rotational motion; summary of linear and rotational dynamics.
Torque
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Page 11 to page 20
Radial acceleration defined; magnitude of radial acceleration, including alternate forms; direction of radial acceleration; cylindrical coordinate system; vectorial description of circular motion; circular motion example problem.
Circular Motion
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PDF
Page 1 to page 14
Uniform circular motion experiment setup and procedure.
Lecture 9
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PDF
Page 15 to page 32
Rotation and translation of a rigid body; translational motion of the center of mass; fixed axis rotation; angular and tangential velocity and acceleration; tangential force and torque; moment of inertia; parallel axis theorem; strategy for calculating moment of inertia.
Circular Motion, Torque, Integrals
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PDF
Page 1 to page 17
Angular velocity and angular acceleration for fixed axis rotation; tangential velocity and tangential acceleration for fixed axis rotation; Newton's second law applied to rotating element; torque about a fixed axis; definition of moment of inertia; rotational work and rotational kinetic energy; rotational work-kinetic energy theorem; definition of rotational power.
Rotational Motion
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PDF
Page 9 to page 12
Fixed axis rotational kinematics, with definitions of angular velocity, angular acceleration, tangential velocity, tangential acceleration, and radial acceleration.
Lectures 22, 24
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PDF
Page 13 to page 26
Torque, rotational kinetic energy, moment of inertia, and rotational work defined; strategy for computing moment of inertia; translational and rotational kinematics/dynamics combined; kepler's Law for conservation of angular momentum.
Lectures 24-27
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Practice Problems

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Problem 1
Angular acceleration as a function of moment of inertia; motion of a rolling wheel.
None
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PDF
Problem 1 to problem 2
Motion of a wheel rolling down an incline; potential and kinetic energy of various objects sliding or rolling down an incline.
None
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PDF
Problem 30(2)
Frictional torque acting on a spinning uniform circular disc.
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PDF
Problem 3
Calculating the stall torque and torque at maximum power of a motor.
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Problem 9
A rod is hit off-center; finding velocity, ω, position, and kinetic energy.
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Problem 10
A string wrapped around the inner part of a yo-yo is pulled; find direction of rolling.
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Problem 11
A spinning disk is pushed against a stationary one; decide on conservation of L, kinetic energy; find ω.
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Problem 7
Two blocks connected over pulley, on separate slopes; find α of pulley, a, and T.
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Problem 9
Explaining transition from skidding to rolling of plane wheels on touchdown.
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Exam Questions

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Problem 2
5-part problem; finding moment of inertia, frictional force, acceleration, angular acceleration, and kinetic energy.
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Problem 2
4-part problem; finding center of mass, moment of inertia of rotor; α from gravity and ω at vertical.
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Problem 3
Acceleration, angular acceleration, and tension in string of yo-yo.
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Problem 4
Straight rod brushes against fixed object; finding ω, kinetic energy, speeds of both ends after collision.
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Problem 8
Motion of a hinged bar falling from rest.
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Problem 10
Angular velocity and torques of a spinning gyroscope.
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Problem 10
Angular velocity and torques of a spinning gyroscope.
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Problem 1
5-part problem; initial L and kinetic energy of washer, frictional torque, final ω of washers, average τ in collision.
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Problem 3
Calculating ω and kinetic energy for bowling ball when it begins to roll; loss of KE.
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Problem 4
6-part problem; for pulley connected to ceiling by string, finding equations of motion, a, falling time, and tension.
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Problem 7
6-part problem; calculating α, ω, power exerted on merry-go-round; ω and kinetic energy after I changes.
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Problem 1c
Angular accelerations resulting from torques applied to two wheels.
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PDF
Problem 1e
Velocities of points on a rolling wheel.
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Problem 3
Rotational and translational motion of a descending yo-yo.
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Problem 4
Rotational and translational motion of a solid cylinder thrown along a wooden floor.
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PDF
Problem B3
Motion of a rotating merry-go-round, before and after children move to the center.
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Problem 2
Elastic collision between two carts and motion of a cart up an inclined plane.
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Problem 4
Translational and rotational kinematics and dynamics of a bicycle wheel.
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Problem 1
4-part friction and rotational kinematics problem; drawing a free-body diagram, calculating tensions, and finding unknown mass.
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Problem 3
5-part rotational dynamics problem; finding τ, I, equation of motion, T, and force at pin.
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Problem 5
5-part rotational dynamics problem; apple revolves on a string at an angle to the horizontal; finding v, ac, ω, α.
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Problem 10
Finding acceleration of bowling ball rolling in accelerating subway car.
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