Laplace Transform of a Triangle Wave: Difference between revisions
		
		
		
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| <math>\int_{-.5}^{.5}{4te^{-st}}=\; \frac{4e^{.5s}-2se^{.5s}-2se^{-.5s}-4e^{-.5s}}{s^{2}}</math> | <math>\int_{-.5}^{.5}{4te^{-st}}=\; \frac{4e^{.5s}-2se^{.5s}-2se^{-.5s}-4e^{-.5s}}{s^{2}}</math> | ||
| <math>\int_{}^{}{-4te^{-st}}=\ | <math>\int_{.5}^{1.5}{-4te^{-st}}=\frac{6se^{-1.5s}+4e^{-1.5s}-2se^{-.5s}-4e^{-.5s}}{s^{2}}</math> | ||
| <math>\int_{}^{}{4.5e^{-st}}=\; L\left\{ 4.5 \right\}=\frac{4.5}{s}</math> | <math>\int_{}^{}{4.5e^{-st}}=\; L\left\{ 4.5 \right\}=\frac{4.5}{s}</math> | ||
Revision as of 13:00, 25 January 2010
This page is still in progress
Introduction
This article explains how to transform a periodic function (in this case a triangle wave). This is especially useful for analyzing circuits which contain triangle wave voltage sources.
Define F(t)
So,
 
 
Using the theorem for the transform of a periodic function,