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==Questions and comments== | ==Questions and comments== | ||
If you have any questions, comments, etc. please post them below | If you have any questions, comments, etc. please post them below | ||
| − | *The video claims to explain how to convert between complex numbers and phasors, but phasors ARE already complex numbers. The video is actually explaining how to transform complex numbers between cartesian and polar notation. Cartesian notation has the form <math>a+jb< | + | *The video claims to explain how to convert between complex numbers and phasors, but phasors ARE already complex numbers. The video is actually explaining how to transform complex numbers between cartesian and polar notation. Cartesian notation has the form <math>a+jb</math>, where <math>a</math> is the real part, <math>b</math> is the imaginary part, and <math>j</math> is the imaginary constant (denoted <math>i</math> in many other fields). Polar notation has the form <math>A*e^(j\theta)</math>, where <math>A</math> is the magnitude and <math>\theta</math> is the phase. |
**Answer to Comment 1 | **Answer to Comment 1 | ||
*Comment 2 | *Comment 2 | ||
Revision as of 10:49, 8 May 2015
Complex Number and Phasor Notation
A slecture by James Herman
Partly based on the ECE201 Spring 2015 lecture material of Prof. Borja Peleato.
Link to video on youtube
Questions and comments
If you have any questions, comments, etc. please post them below
- The video claims to explain how to convert between complex numbers and phasors, but phasors ARE already complex numbers. The video is actually explaining how to transform complex numbers between cartesian and polar notation. Cartesian notation has the form $ a+jb $, where $ a $ is the real part, $ b $ is the imaginary part, and $ j $ is the imaginary constant (denoted $ i $ in many other fields). Polar notation has the form $ A*e^(j\theta) $, where $ A $ is the magnitude and $ \theta $ is the phase.
- Answer to Comment 1
- Comment 2
- Answer to Comment 2
