(Complex Numbers and Its Different Forms)
 
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3. Polar
 
3. Polar
  
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For example, the following vector can be described using three different forms:
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[[Image:ComplexNo_ECE301Fall2008mboutin.JPG]]
  
 
==Rectangular Complex Numbers==
 
==Rectangular Complex Numbers==
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Rectangular Complex Numbers are denoted by its horizontal and vertical components.
  
 
Example: <math>X = 0.5 + \frac{\sqrt[]{3}}{2} j </math>
 
Example: <math>X = 0.5 + \frac{\sqrt[]{3}}{2} j </math>
 
  
 
==Trigonometric Complex Numbers==  
 
==Trigonometric Complex Numbers==  
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Complex Numbers can also be expressed in trigonometric form.
  
 
Example: <math>X = cos60^{\circ} + jsin60^{\circ}</math>
 
Example: <math>X = cos60^{\circ} + jsin60^{\circ}</math>
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Example: <math>X = 1 < 60^{\circ} </math>
 
Example: <math>X = 1 < 60^{\circ} </math>
 
 
... to be continued....
 

Latest revision as of 09:33, 4 September 2008

Complex Numbers and Its Different Forms

Complex Numbers can be written in three forms or notations:

1. Rectangular

2. Trigonometric

3. Polar

For example, the following vector can be described using three different forms:

ComplexNo ECE301Fall2008mboutin.JPG

Rectangular Complex Numbers

Rectangular Complex Numbers are denoted by its horizontal and vertical components.

Example: $ X = 0.5 + \frac{\sqrt[]{3}}{2} j $

Trigonometric Complex Numbers

Complex Numbers can also be expressed in trigonometric form.

Example: $ X = cos60^{\circ} + jsin60^{\circ} $


Polar Complex Numbers

Polar form is when a complex number is described by its length and angle.

Example: $ X = 1 < 60^{\circ} $

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