The cited chapter/section numbers are in the course textbook:
Williams, J. H., Jr. Fundamentals of Applied Dynamics. New York, NY: John Wiley and Sons, Inc., 2006. ISBN: 9780470133859.
SES # | TOPICS | READINGS |
---|---|---|
I. Motion of a single particle | ||
1 |
Course information Begin kinematics: frames of reference and frame notation |
1 |
2 |
The "spider on a Frisbee" problem Kinematics using first principles: "downconvert" to ground frame |
3.1, 3.2 |
3 | Pulley problem, angular velocity, magic formula |
3.3, beginning of 3.4 Handout: kinematics (PDF) |
4 | Magic and super-magic formulae | 3.4, 3.5 theory |
5 | Super-magic formula, degrees of freedom, non-standard coordinates, kinematic constraints | 3.5 problems, 3.6 |
II. 2D Motion of system of particles | ||
6 | Single particle: momentum, Newton's laws, work-energy principle, collisions | 4.1, 4.2 |
7 | Impulse, skier separation problem |
4.4 Handout: note on in-class problem — skier sliding on semicircular mountain (PDF) |
8 |
Single particle: angular momentum, example problem Two particles: dumbbell problem, torque |
4.3, 6.1, 6-2.1 |
9 | Dumbbell problem, multiple particle systems, rigid bodies, derivation of torque = I*alpha | 6.2 |
10 | Three cases, rolling disc problem | 6-3.1, 6-3.2 (restrict to 2D, most of the material is 3D) |
11 | Work-energy principle | |
12 | Exam 1 recap | Handout: rigid body dynamics (PDF) |
13 | Exam 1 | |
III. Introduction to Lagrangian dynamics | ||
14 | Generalized coordinates, introduction to Lagrangian, example problem | 5-4.1, 5-5 (see equations alone), examples in 5-5 without generalized force calculations |
15 | Lagrangian derivation | 5-4.3, 5-4.4 |
16 | Generalized forces, double pendulum problem | 5-4.4, examples in 5-5, 6-5, 2D examples in 6-6 |
17 | Example problem | Examples in 5-5, 6-5, 2D examples in 6-6 |
18 |
Exam 2 recap Inverted pendulum, phase plots |
Handout: Lagrangian formulation (PDF) |
19 | Exam 2 | |
20 | Helicopter dynamics | |
IV. Vibrations | ||
21 | Single DOF system: equilibrium, linearization, stability analysis | 8-1, 8-3 introduction |
22 | Free response of a damped oscillator | 8-3.1 |
23 | Free response (cont.) | 8-3.1 |
24 | Free response (cont.), forced response |
8-3.5 Handout: the behavior of dynamic systems (PDF) |
25 |
Forced response (cont.), Bode plots Putting it all together (free + forced) |
|
26 | Final exam review | |
27 | Final exam |