Prove two Integrals formulae in two dimensionEvaluating Complex Line IntegralsA closed form for $int_0^1_2F_1left(-frac14,frac54;,1;,fracx2right)^2dx$How can I prove that these integrals do not converge?Integral Representation of Terminating Hypergeometric functionEvaluating a certain integral which generalizes the $_3F_2$ hypergeometric functionHow to prove that $_2F_1(1,-k;1-k;-z) = 1 + fraczk1-k~_2F_1(1,1-k;2-k,-z).$Help needed finding a closed form or approximation for an integral(hypergeometric function)How to prove these two integrals are equal?Closed form expression for a Gamma-like integral involving a powered Appell hypergeometric functionHow to prove those Integrals formulae

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Prove two Integrals formulae in two dimension


Evaluating Complex Line IntegralsA closed form for $int_0^1_2F_1left(-frac14,frac54;,1;,fracx2right)^2dx$How can I prove that these integrals do not converge?Integral Representation of Terminating Hypergeometric functionEvaluating a certain integral which generalizes the $_3F_2$ hypergeometric functionHow to prove that $_2F_1(1,-k;1-k;-z) = 1 + fraczk1-k~_2F_1(1,1-k;2-k,-z).$Help needed finding a closed form or approximation for an integral(hypergeometric function)How to prove these two integrals are equal?Closed form expression for a Gamma-like integral involving a powered Appell hypergeometric functionHow to prove those Integrals formulae













0












$begingroup$


I come across the following two integral formulae



  1. The first integral formula is
    beginequation
    int_Bbb C d^2z |z|^2a|z-x|^2c|z-1|^2b
    =
    fracS(a)S(c)S(a+c)|I_0x|^2+fracS(b)S(a+b+c)S(a+c)|I_1infty|^2
    endequation

    with $S(a)=sinpi a$ and
    beginequation
    I_0x=x^1+a+cfracGamma(a+1)Gamma(c+1)Gamma(a+c+2) ~_2F_1(-b,a+1,a+c+2,x)
    endequation

    beginequation
    I_1infty=fracGamma(-a-b-c-1)Gamma(b+1)Gamma(-a-c)
    ~ _2F_1(-a-b-c-1,-c,-a-c,x)
    endequation

    where $_2F_1$ is the hypergeometric function.
    Here the integral is performed on complex plane $Bbb C$ with coordinate $z=x+iy$.

  2. The second similar integral is
    beginequation
    int_Bbb R^d d^d zfrac1^2b=fracpi^d/2fracGamma(d/2-a)Gamma(d/2-b)Gamma(a+b-d/2)Gamma(a)Gamma(b)Gamma(d-a-b)
    endequation

    Here $z$ is coordinate in $d$ dimensional Euclidean space $Bbb R^d$.

It seems that those integrals are similar with Feymann integrals in the calculation of Feymann diagram. When $d=2$, those integrals may occured in the calculation of 2D CFT. I tried to prove those formulae, but I failed.
So my question is how to prove the above formulas.










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migrated from physics.stackexchange.com Mar 1 at 11:08


This question came from our site for active researchers, academics and students of physics.













  • 3




    $begingroup$
    I voted to migrate this to Math.SE.
    $endgroup$
    – AccidentalFourierTransform
    Mar 1 at 2:47















0












$begingroup$


I come across the following two integral formulae



  1. The first integral formula is
    beginequation
    int_Bbb C d^2z |z|^2a|z-x|^2c|z-1|^2b
    =
    fracS(a)S(c)S(a+c)|I_0x|^2+fracS(b)S(a+b+c)S(a+c)|I_1infty|^2
    endequation

    with $S(a)=sinpi a$ and
    beginequation
    I_0x=x^1+a+cfracGamma(a+1)Gamma(c+1)Gamma(a+c+2) ~_2F_1(-b,a+1,a+c+2,x)
    endequation

    beginequation
    I_1infty=fracGamma(-a-b-c-1)Gamma(b+1)Gamma(-a-c)
    ~ _2F_1(-a-b-c-1,-c,-a-c,x)
    endequation

    where $_2F_1$ is the hypergeometric function.
    Here the integral is performed on complex plane $Bbb C$ with coordinate $z=x+iy$.

  2. The second similar integral is
    beginequation
    int_Bbb R^d d^d zfrac1^2b=fracpi^d/2fracGamma(d/2-a)Gamma(d/2-b)Gamma(a+b-d/2)Gamma(a)Gamma(b)Gamma(d-a-b)
    endequation

    Here $z$ is coordinate in $d$ dimensional Euclidean space $Bbb R^d$.

It seems that those integrals are similar with Feymann integrals in the calculation of Feymann diagram. When $d=2$, those integrals may occured in the calculation of 2D CFT. I tried to prove those formulae, but I failed.
So my question is how to prove the above formulas.










share|cite|improve this question











$endgroup$



migrated from physics.stackexchange.com Mar 1 at 11:08


This question came from our site for active researchers, academics and students of physics.













  • 3




    $begingroup$
    I voted to migrate this to Math.SE.
    $endgroup$
    – AccidentalFourierTransform
    Mar 1 at 2:47













0












0








0





$begingroup$


I come across the following two integral formulae



  1. The first integral formula is
    beginequation
    int_Bbb C d^2z |z|^2a|z-x|^2c|z-1|^2b
    =
    fracS(a)S(c)S(a+c)|I_0x|^2+fracS(b)S(a+b+c)S(a+c)|I_1infty|^2
    endequation

    with $S(a)=sinpi a$ and
    beginequation
    I_0x=x^1+a+cfracGamma(a+1)Gamma(c+1)Gamma(a+c+2) ~_2F_1(-b,a+1,a+c+2,x)
    endequation

    beginequation
    I_1infty=fracGamma(-a-b-c-1)Gamma(b+1)Gamma(-a-c)
    ~ _2F_1(-a-b-c-1,-c,-a-c,x)
    endequation

    where $_2F_1$ is the hypergeometric function.
    Here the integral is performed on complex plane $Bbb C$ with coordinate $z=x+iy$.

  2. The second similar integral is
    beginequation
    int_Bbb R^d d^d zfrac1^2b=fracpi^d/2fracGamma(d/2-a)Gamma(d/2-b)Gamma(a+b-d/2)Gamma(a)Gamma(b)Gamma(d-a-b)
    endequation

    Here $z$ is coordinate in $d$ dimensional Euclidean space $Bbb R^d$.

It seems that those integrals are similar with Feymann integrals in the calculation of Feymann diagram. When $d=2$, those integrals may occured in the calculation of 2D CFT. I tried to prove those formulae, but I failed.
So my question is how to prove the above formulas.










share|cite|improve this question











$endgroup$




I come across the following two integral formulae



  1. The first integral formula is
    beginequation
    int_Bbb C d^2z |z|^2a|z-x|^2c|z-1|^2b
    =
    fracS(a)S(c)S(a+c)|I_0x|^2+fracS(b)S(a+b+c)S(a+c)|I_1infty|^2
    endequation

    with $S(a)=sinpi a$ and
    beginequation
    I_0x=x^1+a+cfracGamma(a+1)Gamma(c+1)Gamma(a+c+2) ~_2F_1(-b,a+1,a+c+2,x)
    endequation

    beginequation
    I_1infty=fracGamma(-a-b-c-1)Gamma(b+1)Gamma(-a-c)
    ~ _2F_1(-a-b-c-1,-c,-a-c,x)
    endequation

    where $_2F_1$ is the hypergeometric function.
    Here the integral is performed on complex plane $Bbb C$ with coordinate $z=x+iy$.

  2. The second similar integral is
    beginequation
    int_Bbb R^d d^d zfrac1^2b=fracpi^d/2fracGamma(d/2-a)Gamma(d/2-b)Gamma(a+b-d/2)Gamma(a)Gamma(b)Gamma(d-a-b)
    endequation

    Here $z$ is coordinate in $d$ dimensional Euclidean space $Bbb R^d$.

It seems that those integrals are similar with Feymann integrals in the calculation of Feymann diagram. When $d=2$, those integrals may occured in the calculation of 2D CFT. I tried to prove those formulae, but I failed.
So my question is how to prove the above formulas.







integration mathematical-physics conformal-field-theory






share|cite|improve this question















share|cite|improve this question













share|cite|improve this question




share|cite|improve this question








edited Mar 22 at 14:38









Andrews

1,2812423




1,2812423










asked Mar 1 at 2:43









phys_studentphys_student

112




112




migrated from physics.stackexchange.com Mar 1 at 11:08


This question came from our site for active researchers, academics and students of physics.









migrated from physics.stackexchange.com Mar 1 at 11:08


This question came from our site for active researchers, academics and students of physics.









  • 3




    $begingroup$
    I voted to migrate this to Math.SE.
    $endgroup$
    – AccidentalFourierTransform
    Mar 1 at 2:47












  • 3




    $begingroup$
    I voted to migrate this to Math.SE.
    $endgroup$
    – AccidentalFourierTransform
    Mar 1 at 2:47







3




3




$begingroup$
I voted to migrate this to Math.SE.
$endgroup$
– AccidentalFourierTransform
Mar 1 at 2:47




$begingroup$
I voted to migrate this to Math.SE.
$endgroup$
– AccidentalFourierTransform
Mar 1 at 2:47










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