Solution 1.
See text and/or instructor's solution manual.
Answer.
.
Solution. Use
the Poisson's integral formula, Equation
(11-12)
, and
obtain
Using techniques from calculus we have the integration formulas
, and
.
We obtain the solution as follows
The function
is continuous in the upper half-plane, and on the boundary
,
except at the discontinuities
and
on
the real axis.
We are done.
Aside. We can let Mathematica double check our work.
Using the identities
,
,
and
, will
convert Mathematica's solution into
.
We are really done.
Aside. For
illustration purposes we can graph the
function
.
![[Graphics:../Images/PoissonIntegralModHome_gr_25.gif]](../Images/PoissonIntegralModHome_gr_25.gif)
A
contour graph of the function ![]()
for
.
![[Graphics:../Images/PoissonIntegralModHome_gr_29.gif]](../Images/PoissonIntegralModHome_gr_29.gif)
A
contour graph of the function ![]()
for
.
![[Graphics:../Images/PoissonIntegralModHome_gr_33.gif]](../Images/PoissonIntegralModHome_gr_33.gif)
A
graph of the function ![]()
We are really done.
Aside. We can let Mathematica check out some boundary values.
This solution is complements of the authors.
(c) 2008 John H. Mathews, Russell W. Howell