Fredholm integral equation - Degenerate kernel method












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$begingroup$


I have started answering a fredholm integral equation of the second kind and do not know where to go from here.



The answer has to be written in the form
$$ sum a_jx^{j-1} $$



The fredholm integral equation is



$$ x^3+frac16x^2+frac15x = g(x) + lambda int_0^1(x^2y+xy^2) f(y) dy$$.



My method so far:



Let: $$C_1 = int_0^1yf(y)dy$$ and $$C_2 = int_0^1y^2f(y)dy$$



Then
$$ x^3+frac16x^2+frac15x = lambda(C_1x^2 +C_2x) + g(x)$$.



Eliminating f(y) to get
$$C_1 = lambda(frac14C_1 + frac13C_2) + int_0^1yg(y)dy$$
and
$$C_2 = lambda(frac15C_1 + frac14C_2) + int_0^1y^2g(y)dy$$



I don't know where to go from here to get it into the form
$$ sum a_jx^{j-1} $$
If I have gotten anything wrong here please let me know.
Any help will be appreciated



Thank you very much










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$endgroup$

















    2












    $begingroup$


    I have started answering a fredholm integral equation of the second kind and do not know where to go from here.



    The answer has to be written in the form
    $$ sum a_jx^{j-1} $$



    The fredholm integral equation is



    $$ x^3+frac16x^2+frac15x = g(x) + lambda int_0^1(x^2y+xy^2) f(y) dy$$.



    My method so far:



    Let: $$C_1 = int_0^1yf(y)dy$$ and $$C_2 = int_0^1y^2f(y)dy$$



    Then
    $$ x^3+frac16x^2+frac15x = lambda(C_1x^2 +C_2x) + g(x)$$.



    Eliminating f(y) to get
    $$C_1 = lambda(frac14C_1 + frac13C_2) + int_0^1yg(y)dy$$
    and
    $$C_2 = lambda(frac15C_1 + frac14C_2) + int_0^1y^2g(y)dy$$



    I don't know where to go from here to get it into the form
    $$ sum a_jx^{j-1} $$
    If I have gotten anything wrong here please let me know.
    Any help will be appreciated



    Thank you very much










    share|cite|improve this question











    $endgroup$















      2












      2








      2


      0



      $begingroup$


      I have started answering a fredholm integral equation of the second kind and do not know where to go from here.



      The answer has to be written in the form
      $$ sum a_jx^{j-1} $$



      The fredholm integral equation is



      $$ x^3+frac16x^2+frac15x = g(x) + lambda int_0^1(x^2y+xy^2) f(y) dy$$.



      My method so far:



      Let: $$C_1 = int_0^1yf(y)dy$$ and $$C_2 = int_0^1y^2f(y)dy$$



      Then
      $$ x^3+frac16x^2+frac15x = lambda(C_1x^2 +C_2x) + g(x)$$.



      Eliminating f(y) to get
      $$C_1 = lambda(frac14C_1 + frac13C_2) + int_0^1yg(y)dy$$
      and
      $$C_2 = lambda(frac15C_1 + frac14C_2) + int_0^1y^2g(y)dy$$



      I don't know where to go from here to get it into the form
      $$ sum a_jx^{j-1} $$
      If I have gotten anything wrong here please let me know.
      Any help will be appreciated



      Thank you very much










      share|cite|improve this question











      $endgroup$




      I have started answering a fredholm integral equation of the second kind and do not know where to go from here.



      The answer has to be written in the form
      $$ sum a_jx^{j-1} $$



      The fredholm integral equation is



      $$ x^3+frac16x^2+frac15x = g(x) + lambda int_0^1(x^2y+xy^2) f(y) dy$$.



      My method so far:



      Let: $$C_1 = int_0^1yf(y)dy$$ and $$C_2 = int_0^1y^2f(y)dy$$



      Then
      $$ x^3+frac16x^2+frac15x = lambda(C_1x^2 +C_2x) + g(x)$$.



      Eliminating f(y) to get
      $$C_1 = lambda(frac14C_1 + frac13C_2) + int_0^1yg(y)dy$$
      and
      $$C_2 = lambda(frac15C_1 + frac14C_2) + int_0^1y^2g(y)dy$$



      I don't know where to go from here to get it into the form
      $$ sum a_jx^{j-1} $$
      If I have gotten anything wrong here please let me know.
      Any help will be appreciated



      Thank you very much







      calculus linear-algebra integration functional-analysis definite-integrals






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      share|cite|improve this question













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      edited Jan 2 at 18:03







      p s

















      asked Dec 29 '18 at 18:03









      p sp s

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