manchester20
- 1
- 0
Hi,
I have the following PDE-S\frac{\partial\vartheta}{\partial\tau}+\frac{1}{2}\sigma^2\frac{X^2}{S}\frac{\partial^2\vartheta}{\partial\xi^{2}} + [\frac{S}{T} + (r-D)X]\frac{\partial\vartheta}{\partial\xi}I am asked to seek a solution of the form \vartheta=\alpha_1(\tau)\xi + \alpha_0(\tau) and give a general solution for \alpha_1(\tau) and \alpha_0(\tau)
where we have
\tau=T-t
and
\xi=\frac{t}{T}-\frac{X}{S}
I have tried doing the partial differentials of \vartheta with respect to τ and ε, but the answer doesn't allow me to get a general solution for the two unknown functions of τ.
If anyone could help i would be really grateful.
Thanks
NOTE: the word 'partial' in the equation should be a symbol for the partial derivative.
I have the following PDE-S\frac{\partial\vartheta}{\partial\tau}+\frac{1}{2}\sigma^2\frac{X^2}{S}\frac{\partial^2\vartheta}{\partial\xi^{2}} + [\frac{S}{T} + (r-D)X]\frac{\partial\vartheta}{\partial\xi}I am asked to seek a solution of the form \vartheta=\alpha_1(\tau)\xi + \alpha_0(\tau) and give a general solution for \alpha_1(\tau) and \alpha_0(\tau)
where we have
\tau=T-t
and
\xi=\frac{t}{T}-\frac{X}{S}
I have tried doing the partial differentials of \vartheta with respect to τ and ε, but the answer doesn't allow me to get a general solution for the two unknown functions of τ.
If anyone could help i would be really grateful.
Thanks
NOTE: the word 'partial' in the equation should be a symbol for the partial derivative.
Last edited: