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Video Clips

RealVideo®
9:08 minutes (37:02 - 46:10)
Projectile motion equations derived from motion with constant acceleration; separating the x and y components.
Prof. Walter Lewin
3D Motion (30:19 of V3), 1D Motion (34:18 of V2)
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RealVideo®
3:21 minutes (46:10 - 49:31)
Golf ball fired directly upward from moving cart and caught later by the cart.
Prof. Walter Lewin
Projectile Motion (37:02 of V3)
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RealVideo®
8:42 minutes (0:00 - 8:42)
Proof that PM is a parabola; calculation of maximum height for PM with qualitative explanation.
Projectile Motion (37:02 of V3)
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RealVideo®
5:06 minutes (8:42 - 13:48)
Calculation of horizontal displacement for PM and angle α that maximizes it.
Prof. Walter Lewin
Projectile Motion Shape (beginning of V4)
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RealVideo®
11:24 minutes (13:48 - 25:12)
Demonstration of maximum horizontal displacement within calculated uncertainty for 45°.
Prof. Walter Lewin
Horizontal Displacement for Projectile Motion (8:42 of V4)
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RealVideo®
10:18 minutes (25:12 - 35:30)
Demonstration of the same displacement for 30° and 60° with different times.
Prof. Walter Lewin
Horizontal Displacement for Projectile Motion (8:42 of V4)
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RealVideo®
6:25 minutes (35:30 - 41:55)
Example of monkey falling from a tree when gun is fired at it; proof that monkey gets hit independent of velocity.
Prof. Walter Lewin
Projectile Motion (37:02 of V3)
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RealVideo®
3:28 minutes (41:55 - 45:23)
Proof that in the frame of reference of the monkey, the trajectory of bullet is straight, not an arc.
Prof. Walter Lewin
Collisions in Free-fall (35:30 of V4)
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RealVideo®
6:38 minutes (45:23 - 52:01)
Demonstration of ball hitting monkey in flight.
Prof. Walter Lewin
Free-fall Reference Frame (41:55 of V4)
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RealVideo®
4:19 minutes (26:42 - 31:01)
Projectile equations of motion in x and y directions.
Prof. Walter Lewin
Projectile Motion (37:02 of V3)
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RealVideo®
8:38 minutes (31:01 - 39:39)
Worked example of projectile motion for KC135 jet; x, y, x', y' determined and graph analyzed.
Prof. Walter Lewin
Projectile Motion (37:02 of V3)
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Lecture Notes

PDF - 1.6 MB
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Page 1
Definition of a vector, displacement.
Prof. Stanley Kowalski
None
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PDF - 1.6 MB
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Page 1 to page 2
Addition, subtraction, negative of a vector; multiplying scalars and vectors.
Prof. Stanley Kowalski
Vectors
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PDF - 1.6 MB
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Page 3 to page 4
Components of vectors in two or three dimensions, with examples; unit vectors; arbitrary vector in terms of unit vectors example.
Prof. Stanley Kowalski
Vector Operations
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PDF - 1.6 MB
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Page 5 to page 6
Definition of dot product, with example; distributive law.
Prof. Stanley Kowalski
Vector Components
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PDF - 1.4 MB
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Page 1 to page 2
Definition of cross product of two vectors; right-hand rule; 2nd and 3rd order determinants; cross product examples.
Prof. Stanley Kowalski
Lecture 4
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PDF - 1.4 MB
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Page 2 to page 5
Extension of one-dimensional motion to three dimensions. Includes average and instantaneous velocity, average and instantaneous acceleration, and constant acceleration.
Prof. Stanley Kowalski
Lectures 3 and 4
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PDF - 1.3 MB
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Page 1 to page 4
Equations for ballistic motion in two dimensions. Includes examples.
Prof. Stanley Kowalski
Lecture 5
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PDF - 1.3 MB
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Page 5
List of steps for solving projectile motion problems in two-dimensions. Includes example.
Prof. Stanley Kowalski
Projectile Motion
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PDF - 1.3 MB
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Page 1 to page 5
Uniform circular motion; centripetal acceleration; non-uniform circular motion; reference frames; relativity of motion; problem-solving strategy for relative velocities with examples.
Prof. Stanley Kowalski
Lecture 6
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PDF
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Page 6 to page 9
Overview of rectangular, spherical, and cylindrical coordinate systems.
Prof. Stanley Kowalski
None
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PDF
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Page 1 to page 3
Definition of a vector, displacement.
Prof. Stanley Kowalski
None
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PDF
#
Page 4 to page 5
Addition, subtraction, negative of a vector; multiplying scalars and vectors.
Prof. Stanley Kowalski
Vectors
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PDF
#
Page 6 to page 11
Components of vectors in two or three dimensions, with examples; unit vectors; arbitrary vector in terms of unit vectors example.
Prof. Stanley Kowalski
Vector Operations
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PDF
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Page 12 to page 15
Definition of dot product, with example; distributive law.
Prof. Stanley Kowalski
Vector Components
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PDF
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Page 1 to page 6
Definition for two vectors; right-hand rule; 2nd and 3rd order determinants; cross product examples.
Prof. Stanley Kowalski
Lecture 4
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PDF
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Page 7 to page 18
Extension of one-dimensional motion to three dimensions. Includes average and instantaneous velocity, average and instantaneous acceleration, and constant acceleration.
Prof. Stanley Kowalski
Lectures 3 and 4
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PDF
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Page 1 to page 11
Equations for ballistic motion in two dimensions. Includes examples.
Prof. Stanley Kowalski
Lecture 5
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PDF
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Page 12 to page 14
List of steps for solving projectile motion problems in two-dimensions. Includes example.
Prof. Stanley Kowalski
Projectile Motion
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PDF
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Page 1 to page 14
Uniform circular motion; centripetal acceleration; non-uniform circular motion; reference frames; relativity of motion; problem-solving strategy for relative velocities with examples.
Prof. Stanley Kowalski
Lecture 6
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PDF
Page 1 to page 2
Performing vector addition using vector components; vector component notation.
Dr. George Stephans
None
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PDF
Page 1 to page 2
Velocity and acceleration in multiple dimensions; special case of projectile motion; solving quadratic equations.
Dr. George Stephans
1D Kinematics
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PDF
Page 1 to page 2
Projectile motion equations; circular motion equations; centripetal acceleration, with equation; dimensional analysis method.
Dr. George Stephans
Multi-Dimensional Kinematics
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PDF
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Page 1 to page 10
Vector description of motion, including equations for position, velocity and acceleration; projectile motion; kinematic equations of motion in terms of x- and y- components; initial conditions; orbit equation with derivation.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
Lecture 2
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PDF
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Page 11 to page 17
Projectile motion experiment set-up and procedure.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
2D Motion
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Practice Problems

PDF
Problem 7
3-part problem; maximizing distance for cannon to shoot when constrained by ceiling.
Prof. Stanley Kowalski
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PDF
Problem 1 to problem 2
Determining what conditions must apply for force vectors to add up to zero. Solution not included.
Dr. George Stephans
None
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PDF
Problem 1 to problem 1
Velocity and acceleration of projectile motion. Solution not included.
Dr. George Stephans
None
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PDF
Problem 2
Finding the landing point of a projectile on an inclined plane.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
Problem 3
Hitting a falling body with a projectile.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
Problem 7
Velocities in relatively inertial reference frames.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
Problem 8
Acceleration in relatively inertial reference frames.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
Problem 8
Speed and acceleration of a cart on a roller-coaster. Solution not included.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
None
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PDF
Problem 1
Projectile motion of two objects. Solution not included.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
None
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PDF
Problem 2
Magnitude and direction of velocity for a parabolic orbit. Solution not included.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
None
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PDF
Problem 3
Motion of a stone thrown at a falling person. Solution not included.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
None
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PDF
Problem 4
Speed and acceleration at the apex of projectile's path. Solution not included.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
None
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Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow

PDF
Problem 3
Motion of a fielder running to catch a softball.
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PDF
Problem 4
Motion of an object sliding off an inclined roof and falling to the ground.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
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Problem 6
Finding maximum distance between two towns.
Prof. Walter Lewin
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PDF
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Problem 7
Finding a parameter that makes two vectors orthogonal.
Prof. Walter Lewin
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PDF
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Problem 9
Finding two unit vectors perpendicular to two given vectors.
Prof. Walter Lewin
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PDF
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Problem 10
3-part 3D kinematics problem; finding v, |v|, a.
Prof. Walter Lewin
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Exam Questions

PDF
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Problem 2
3-part projectile problem; finding time and height of bullet hitting balloon, and time before firing (at fixed v, θ). Solutions are given at the end of each problem.
Prof. Stanley Kowalski
None
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PDF
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Problem 3
For boat crossing a flowing river, finding angle for direct crossing and for optimal time. Solutions are given at the end of each problem.
Prof. Stanley Kowalski
None
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PDF
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Problem 2
3-part 2D kinematics; finding point where walkers on square meet, distance to (0,0), and average velocity. Solutions are given at the end of each problem.
Prof. Stanley Kowalski
None
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PDF
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Problem 3
4-part problem; finding time and distance to impact, speed and location of impact. Solutions are given at the end of each problem.
Prof. Stanley Kowalski
None
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PDF
Problem 2
Motion of a rock thrown upward from a bridge.
Dr. George Stephans
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PDF
Problem 3
Motion of a rock thrown from a bridge as seen from multiple reference frames.
Dr. George Stephans
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PDF
Problem 7
Finding and plotting the velocity and acceleration of a particle given equations for its position.
Dr. George Stephans
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PDF
Problem 10
Motion of a ball thrown from a moving boat.
Dr. George Stephans
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PDF
Problem 11
Motion of an acrobat catching a ball in mid-air.
Dr. George Stephans
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PDF
Problem 2
Comparing distance and hangtime for a punt at two different angles.
Dr. Peter Dourmashkin, Prof. Kate Scholberg
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PDF
Problem 2
Motion of an object sliding off an inclined roof and falling to the ground.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
Problem 4
Motion of a boat rowing across a river perpendicular to the current.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
Problem 6
Motion of a ball projected upwards and at an angle.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
Problem B8
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
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Problem 1a
Motion of a thrown ball as seen by observers at different reference frames.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
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Problem 3
Motion of an object that slides off the top step of a staircase.
Dr. Peter Dourmashkin, Prof. J. David Litster, Prof. David Pritchard, Prof. Bernd Surrow
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PDF
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Problem 1
3-part projectile motion problem involving stones thrown into the air.
Prof. Walter Lewin
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PDF
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Problem 2
3-part 3D kinematics and 2-part 1D kinematics problem about a moving particle.
Prof. Walter Lewin
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PDF
Problem 1
4-part projectile motion problem; finding highest point, final position, and speed.
Prof. Walter Lewin
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