How to construct an orthogonal, complete set of functions on the interval $[0, L]$ with given conditions at $x=0,L$?
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The functions must be at least $C^2$, preferably $C^infty$. Completeness for square-integrable functions is sufficient.
The conditions at the points $x=0,L$ prescribe the values of the function and its derivatives.
In my case I need simply $f(0)=f(L) = 0$ and $f'(0)=f'(L) = 0$, but I wonder whether one may consider the general case of arbitrarily prescribed values $f^(n)(0)$ and $f^(n)(L)$?
Does it get easier if I prescribe the values at $x=0$ and demand periodicity, i.e. $f^(n)(L)=f^(n)(0)$ up to some order $n$?
Literature recommendations are welcome. Thank you in advance.
functional-analysis orthogonality orthogonal-polynomials
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up vote
2
down vote
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The functions must be at least $C^2$, preferably $C^infty$. Completeness for square-integrable functions is sufficient.
The conditions at the points $x=0,L$ prescribe the values of the function and its derivatives.
In my case I need simply $f(0)=f(L) = 0$ and $f'(0)=f'(L) = 0$, but I wonder whether one may consider the general case of arbitrarily prescribed values $f^(n)(0)$ and $f^(n)(L)$?
Does it get easier if I prescribe the values at $x=0$ and demand periodicity, i.e. $f^(n)(L)=f^(n)(0)$ up to some order $n$?
Literature recommendations are welcome. Thank you in advance.
functional-analysis orthogonality orthogonal-polynomials
add a comment |Â
up vote
2
down vote
favorite
up vote
2
down vote
favorite
The functions must be at least $C^2$, preferably $C^infty$. Completeness for square-integrable functions is sufficient.
The conditions at the points $x=0,L$ prescribe the values of the function and its derivatives.
In my case I need simply $f(0)=f(L) = 0$ and $f'(0)=f'(L) = 0$, but I wonder whether one may consider the general case of arbitrarily prescribed values $f^(n)(0)$ and $f^(n)(L)$?
Does it get easier if I prescribe the values at $x=0$ and demand periodicity, i.e. $f^(n)(L)=f^(n)(0)$ up to some order $n$?
Literature recommendations are welcome. Thank you in advance.
functional-analysis orthogonality orthogonal-polynomials
The functions must be at least $C^2$, preferably $C^infty$. Completeness for square-integrable functions is sufficient.
The conditions at the points $x=0,L$ prescribe the values of the function and its derivatives.
In my case I need simply $f(0)=f(L) = 0$ and $f'(0)=f'(L) = 0$, but I wonder whether one may consider the general case of arbitrarily prescribed values $f^(n)(0)$ and $f^(n)(L)$?
Does it get easier if I prescribe the values at $x=0$ and demand periodicity, i.e. $f^(n)(L)=f^(n)(0)$ up to some order $n$?
Literature recommendations are welcome. Thank you in advance.
functional-analysis orthogonality orthogonal-polynomials
edited Jul 23 at 8:30
pointguard0
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asked Jul 23 at 8:27
user578943
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