How do I find Fourier series coefficients for triangular and sawtooth waveforms?

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SUMMARY

This discussion focuses on finding Fourier series coefficients for triangular and sawtooth waveforms. The user encountered difficulties due to the linear slope of these waveforms, which complicates the integration process, particularly requiring integration by parts. A referenced article provides cosine-like Fourier transform coefficients for various waveforms, including triangular and sawtooth shapes, with specific equations detailed on pages 605 and 606. This resource is essential for anyone looking to derive these coefficients accurately.

PREREQUISITES
  • Understanding of Fourier series and transforms
  • Proficiency in integration techniques, particularly integration by parts
  • Familiarity with triangular and sawtooth waveforms
  • Basic knowledge of mathematical analysis and linear functions
NEXT STEPS
  • Study the derivation of Fourier series coefficients for triangular waveforms
  • Explore integration by parts in the context of Fourier analysis
  • Review the referenced article on pages 605 and 606 for detailed examples
  • Learn about the differences in Fourier coefficients for various waveform shapes
USEFUL FOR

This discussion is beneficial for electrical engineers, mathematicians, and students studying signal processing or Fourier analysis, particularly those working with triangular and sawtooth waveforms.

phsyics_197
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Triangular and sawtooth waveforms.

I solved for the coeffiecients for the square wave, and was wondering if you do the same for triangular and sawtooth. I keep getting large/messy integrals that do not seem to simplify.

The thing that is messing me up is that the waveform is linear with a slope, as opposed to just 1/-1. Which would require us to solve by integration by parts.

Are there any worked up examples regarding these. I would like to see the answer I am supposed to get and try to work through it.
 
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