Gamma
- 355
- 11
I have a function defined between 0<x<infinity, and 0<y<b
\phi=cos(\pi y/b) e^{iwt}(A e^{\lambda x} + B e^{-\lambda x)}
Given \frac{\partial \phi}{\partial x} = a cos(\pi y/b)e^{iwt} at x=0
and \omega ^2 = \pi ^2 v^2 n^2 /b^2
need to find A and B.
Above condithion gives one equation for A and B.
How do I find a second equation relating A and B.
Given function satisefies the 2D wave equation.
Pluggig in values in
\frac {\partial ^2 \phi}{\partial x^2 } + \frac {\partial ^2 \phi}{\partial y^2 } = 1/v^2 \frac {\partial ^2 \phi}{\partial t^2 }I get, relationship between v and w. No new info.I would appreciate any hints,THanks,Gamma.
\phi=cos(\pi y/b) e^{iwt}(A e^{\lambda x} + B e^{-\lambda x)}
Given \frac{\partial \phi}{\partial x} = a cos(\pi y/b)e^{iwt} at x=0
and \omega ^2 = \pi ^2 v^2 n^2 /b^2
need to find A and B.
Above condithion gives one equation for A and B.
How do I find a second equation relating A and B.
Given function satisefies the 2D wave equation.
Pluggig in values in
\frac {\partial ^2 \phi}{\partial x^2 } + \frac {\partial ^2 \phi}{\partial y^2 } = 1/v^2 \frac {\partial ^2 \phi}{\partial t^2 }I get, relationship between v and w. No new info.I would appreciate any hints,THanks,Gamma.
Last edited: