Solving Integral Equation: sin(x)+∫_0^π sin(x-t)y(t)dt

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SUMMARY

The forum discussion focuses on solving the integral equation y(x) = sin(x) + ∫0π sin(x-t)y(t)dt. Participants explore various methods, including differentiation and integration by parts, to derive a solution. The final solution is expressed as y(x) = Acos(x) + Bsin(x), with constants A and B determined through initial conditions. The discussion also touches on the application of Laplace transforms and the classification of the integral equation as a Volterra or Fredholm type.

PREREQUISITES
  • Understanding of integral equations, specifically Volterra and Fredholm types.
  • Familiarity with differentiation and integration techniques, including integration by parts.
  • Knowledge of Laplace transforms and their application in solving differential equations.
  • Basic concepts of ordinary differential equations (ODEs) and boundary conditions.
NEXT STEPS
  • Study the properties and solutions of Volterra integral equations.
  • Learn advanced techniques in integration by parts for complex integrals.
  • Explore the application of Laplace transforms in solving integral and differential equations.
  • Investigate the relationship between integral equations and ordinary differential equations.
USEFUL FOR

Mathematicians, students studying integral equations, and anyone interested in advanced calculus and differential equations will benefit from this discussion.

  • #31
It's not Ax+B, it's f(x)=Aln(x)+B. You want to integrate ln(x/t)*f(t)=ln(x/t)*(Aln(t)+B)dt from t from 0 to 1. That breaks up into integrating ln(t)^2 and ln(t). Do them by integrating by parts. If you are having trouble with the individual integrations, it might be best to post a separate thread with your specific integration questions. This doesn't have much to do with integral equations.
 
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  • #32
Have you tried the laplace transform ... it applies very nicely here .:)

This equation is the Volterra integral equations .
 
  • #33
How does the Laplace trandform apply here?

Which integral equaiton is Volterra?
The ones are posted are Fredholm.
 

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