Integral of two Bessel functions product times Gaussian











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Does anyone have a clue about how to solve this integral? Will it have a closed form?



$int_0^infty e^{-x^2}J_n(ax)J_n(bx)dx$



I've been searching materials and papers for a while, and did find anything about it... People had this integral
$int_0^infty x^2e^{-x^2}J_n(ax)J_n(bx)dx$
solved instead of the above form.










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  • Just a correction... the exponential of e in the integral has a minus sign in front. (corrected in the question...)
    – Yang
    yesterday








  • 1




    In book: Table of Integrals, Series, and Products Eighth Edition 6.618 example 5 page 706.
    – Mariusz Iwaniuk
    yesterday










  • @MariuszIwaniuk wouldn't it be (6.633.1) rather than (6.618.5) where the Bessel functions have identical variables $J_mu(beta x)J_nu(beta x)$?
    – Paul Enta
    yesterday










  • I can only find the PDF of the seventh edition. Then, I think the equations you are talking about is 6.633 example 1, page 707 in the seventh edition. Thanks a lot for your help! (But sadly, the result has an infinite summation inside, which is still very hard to handle. :( )
    – Yang
    yesterday










  • @PaulEnta.6.633.3 it fits more to OP question (First integral).
    – Mariusz Iwaniuk
    yesterday

















up vote
1
down vote

favorite












Does anyone have a clue about how to solve this integral? Will it have a closed form?



$int_0^infty e^{-x^2}J_n(ax)J_n(bx)dx$



I've been searching materials and papers for a while, and did find anything about it... People had this integral
$int_0^infty x^2e^{-x^2}J_n(ax)J_n(bx)dx$
solved instead of the above form.










share|cite|improve this question









New contributor




Yang is a new contributor to this site. Take care in asking for clarification, commenting, and answering.
Check out our Code of Conduct.




















  • Just a correction... the exponential of e in the integral has a minus sign in front. (corrected in the question...)
    – Yang
    yesterday








  • 1




    In book: Table of Integrals, Series, and Products Eighth Edition 6.618 example 5 page 706.
    – Mariusz Iwaniuk
    yesterday










  • @MariuszIwaniuk wouldn't it be (6.633.1) rather than (6.618.5) where the Bessel functions have identical variables $J_mu(beta x)J_nu(beta x)$?
    – Paul Enta
    yesterday










  • I can only find the PDF of the seventh edition. Then, I think the equations you are talking about is 6.633 example 1, page 707 in the seventh edition. Thanks a lot for your help! (But sadly, the result has an infinite summation inside, which is still very hard to handle. :( )
    – Yang
    yesterday










  • @PaulEnta.6.633.3 it fits more to OP question (First integral).
    – Mariusz Iwaniuk
    yesterday















up vote
1
down vote

favorite









up vote
1
down vote

favorite











Does anyone have a clue about how to solve this integral? Will it have a closed form?



$int_0^infty e^{-x^2}J_n(ax)J_n(bx)dx$



I've been searching materials and papers for a while, and did find anything about it... People had this integral
$int_0^infty x^2e^{-x^2}J_n(ax)J_n(bx)dx$
solved instead of the above form.










share|cite|improve this question









New contributor




Yang is a new contributor to this site. Take care in asking for clarification, commenting, and answering.
Check out our Code of Conduct.











Does anyone have a clue about how to solve this integral? Will it have a closed form?



$int_0^infty e^{-x^2}J_n(ax)J_n(bx)dx$



I've been searching materials and papers for a while, and did find anything about it... People had this integral
$int_0^infty x^2e^{-x^2}J_n(ax)J_n(bx)dx$
solved instead of the above form.







integration bessel-functions gaussian-integral






share|cite|improve this question









New contributor




Yang is a new contributor to this site. Take care in asking for clarification, commenting, and answering.
Check out our Code of Conduct.











share|cite|improve this question









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Yang is a new contributor to this site. Take care in asking for clarification, commenting, and answering.
Check out our Code of Conduct.









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share|cite|improve this question








edited yesterday





















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asked yesterday









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New contributor




Yang is a new contributor to this site. Take care in asking for clarification, commenting, and answering.
Check out our Code of Conduct.





New contributor





Yang is a new contributor to this site. Take care in asking for clarification, commenting, and answering.
Check out our Code of Conduct.






Yang is a new contributor to this site. Take care in asking for clarification, commenting, and answering.
Check out our Code of Conduct.












  • Just a correction... the exponential of e in the integral has a minus sign in front. (corrected in the question...)
    – Yang
    yesterday








  • 1




    In book: Table of Integrals, Series, and Products Eighth Edition 6.618 example 5 page 706.
    – Mariusz Iwaniuk
    yesterday










  • @MariuszIwaniuk wouldn't it be (6.633.1) rather than (6.618.5) where the Bessel functions have identical variables $J_mu(beta x)J_nu(beta x)$?
    – Paul Enta
    yesterday










  • I can only find the PDF of the seventh edition. Then, I think the equations you are talking about is 6.633 example 1, page 707 in the seventh edition. Thanks a lot for your help! (But sadly, the result has an infinite summation inside, which is still very hard to handle. :( )
    – Yang
    yesterday










  • @PaulEnta.6.633.3 it fits more to OP question (First integral).
    – Mariusz Iwaniuk
    yesterday




















  • Just a correction... the exponential of e in the integral has a minus sign in front. (corrected in the question...)
    – Yang
    yesterday








  • 1




    In book: Table of Integrals, Series, and Products Eighth Edition 6.618 example 5 page 706.
    – Mariusz Iwaniuk
    yesterday










  • @MariuszIwaniuk wouldn't it be (6.633.1) rather than (6.618.5) where the Bessel functions have identical variables $J_mu(beta x)J_nu(beta x)$?
    – Paul Enta
    yesterday










  • I can only find the PDF of the seventh edition. Then, I think the equations you are talking about is 6.633 example 1, page 707 in the seventh edition. Thanks a lot for your help! (But sadly, the result has an infinite summation inside, which is still very hard to handle. :( )
    – Yang
    yesterday










  • @PaulEnta.6.633.3 it fits more to OP question (First integral).
    – Mariusz Iwaniuk
    yesterday


















Just a correction... the exponential of e in the integral has a minus sign in front. (corrected in the question...)
– Yang
yesterday






Just a correction... the exponential of e in the integral has a minus sign in front. (corrected in the question...)
– Yang
yesterday






1




1




In book: Table of Integrals, Series, and Products Eighth Edition 6.618 example 5 page 706.
– Mariusz Iwaniuk
yesterday




In book: Table of Integrals, Series, and Products Eighth Edition 6.618 example 5 page 706.
– Mariusz Iwaniuk
yesterday












@MariuszIwaniuk wouldn't it be (6.633.1) rather than (6.618.5) where the Bessel functions have identical variables $J_mu(beta x)J_nu(beta x)$?
– Paul Enta
yesterday




@MariuszIwaniuk wouldn't it be (6.633.1) rather than (6.618.5) where the Bessel functions have identical variables $J_mu(beta x)J_nu(beta x)$?
– Paul Enta
yesterday












I can only find the PDF of the seventh edition. Then, I think the equations you are talking about is 6.633 example 1, page 707 in the seventh edition. Thanks a lot for your help! (But sadly, the result has an infinite summation inside, which is still very hard to handle. :( )
– Yang
yesterday




I can only find the PDF of the seventh edition. Then, I think the equations you are talking about is 6.633 example 1, page 707 in the seventh edition. Thanks a lot for your help! (But sadly, the result has an infinite summation inside, which is still very hard to handle. :( )
– Yang
yesterday












@PaulEnta.6.633.3 it fits more to OP question (First integral).
– Mariusz Iwaniuk
yesterday






@PaulEnta.6.633.3 it fits more to OP question (First integral).
– Mariusz Iwaniuk
yesterday

















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