Let X have a Poisson distribution with parameter ?. to
Chapter 7, Problem 100SE(choose chapter or problem)
Suppose F is defined as in Definition 7.3.
a If \(W_{2}\) is fixed at \(W_{2}\), then \(F=W_{1} / c\), where \(c=w_{2} v_{1} / v_{2}\). Find the conditional density of
𝐹 for fixed \(W_{2}=w_{2}\).
b Find the joint density of 𝐹 and \(W_{2}\)
c Integrate over \(w_{2}\) to show that the probability density function of 𝐹 —say, 𝘨 (𝘺)—is given by
\(g(y)=\frac{\Gamma\left[\left(v_{1}+v_{2}\right) / 2\right]\left(v_{1} / v_{2}\right)^{v_{1} / 2}}{\Gamma\left(v_{1} / 2\right) \Gamma\left(v_{2} / 2\right)} y^{\left(v_{1} / 2\right)-1}\left(1+\frac{v_{1} y}{v_{2}}\right)^{-\left(\nu_{1}+v_{2}\right) / 2}, \quad 0<y<\infty\)
Equation Transcription:
Text Transcription:
W2
W2
F=W1/c
c=w2v1/v2
W2=w2
W2
w2
\(g(y)=\Gamma [(v_1+v_2\) / 2\](v_1 / v_{2)^v_1 / 2\Gamma(v_{1} / 2) \Gamma(v_2 / 2) y^(v_1 / 2)-1(1+v_1 y v_2)^-(\nu_1+v_2) / 2, \quad 0<y<\infty
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