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S# Lecture Course Institute Instructor Discipline
3676
Lecture 9: Pleat Folding (M-I-T)
Geometric Folding Algorithms: Linkages, Origami, Polyhedra (M-I-T) MIT Prof. Erik Demaine Applied Sciences
3677
1. Introduction and Basic Concepts (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3678
10. Compensation Example (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3679
11. Feedback Compensation (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3680
12. Feedback Compensation of an Operational Amplifier (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3681
13. Operational Amplifier Compensation (continued) (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3682
14. Linearized Analysis of Nonlinear Systems (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3683
15. Describing Functions (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3684
16. Describing Functions (continued) (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3685
17. Conditional Stability (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3686
18. Oscillators (Intentional) (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3687
19. Phase-locked Loops (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3688
2. Effects of Feedback on Noise and Nonlinearities (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3689
20. Model Train Speed Control (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3690
3. Introduction to Systems with Dynamics (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3691
Lecture 10: HQET Examples (M-I-T)
Effective Field Theory (Spring 2013) (M-I-T) MIT Prof. Iain Stewart Basic and Health Sciences
3692
4. Stability (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3693
Lecture 11: Renormalons (M-I-T)
Effective Field Theory (Spring 2013) (M-I-T) MIT Prof. Iain Stewart Basic and Health Sciences
3694
Lecture 12: More Renormalons (M-I-T)
Effective Field Theory (Spring 2013) (M-I-T) MIT Prof. Iain Stewart Basic and Health Sciences
3695
5. Root Locus (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3696
Lecture 13: EFT with Fine Tuning (M-I-T)
Effective Field Theory (Spring 2013) (M-I-T) MIT Prof. Iain Stewart Basic and Health Sciences
3697
6. More Root Locus (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences
3698
Lecture 14: EFT with Fine Tuning Part 2 (M-I-T)
Effective Field Theory (Spring 2013) (M-I-T) MIT Prof. Iain Stewart Basic and Health Sciences
3699
Lecture 15: Soft-Collinear Effective Theory (SCET) Introduction (M-I-T)
Effective Field Theory (Spring 2013) (M-I-T) MIT Prof. Iain Stewart Basic and Health Sciences
3700
7. Stability via Frequency Response (M-I-T)
Electronic Feedback Systems (M-I-T) MIT Prof. James K. Roberge Applied Sciences