Second Order Circuits: Difference between revisions
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= Series RLC Circuits = | = Series RLC Circuits = | ||
== | == Natural Response == | ||
[[File:Unforced RLC Circuit.png|thumb|An unforced series RLC circuit]] | [[File:Unforced RLC Circuit.png|thumb|An unforced series RLC circuit]] | ||
Consider an un-forced RLC circuit. We want to find <math>V_C</math>. | Consider an un-forced RLC circuit. We want to find <math>V_C</math>. | ||
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= Parallel RLC Circuits = | = Parallel RLC Circuits = | ||
== | == Natural Response == | ||
[[File:Parallel Unforced RLC Circuit.png|thumb|A parallel unforced RLC circuit]] | [[File:Parallel Unforced RLC Circuit.png|thumb|A parallel unforced RLC circuit]] | ||
[[Category:Electrical Engineering]] | [[Category:Electrical Engineering]] |
Revision as of 06:56, 8 March 2024
Second order circuits are circuits that have two energy storage elements, resulting in second-order differential equations.
One application of second order circuits is in timing computers. As we will see, an RLC circuit can generate a sinusoidal wave.
There are primarily two types of second order circuits:
- Parallel RLC circuits
- Series RLC circuits
Series RLC Circuits
Natural Response
Consider an un-forced RLC circuit. We want to find .
First, we can use KVL and KCL
Next, we can use and substitution to get
Changing the order and moving the constants,
Moving constants away from the first term to get a second-order differential equation,