Module for the Generalized Eigenvector Solution in a Linear System of O. D. E.
Numerical Methods for O. D. E. using Mathematica. (c) John H. Mathews, 2003
Background.
The matrix
has
as an eigenvalue, with the associated eigenvector
provided
, and the eigenvector
corresponding to
is a non-zero solution to
. Generalized eigenvectors will be of the form
,
and
.
Example 1. Use eigenvectors and eigenvalues to solve the differential equation system
where
.
Solution 1.
Example 2 (a) Find the general solution to the system of D.E.'s
, where
2 (b) Find the solution in (a) that has the I.C.'s
,
and plot the solutions over the interval
.
Solution 2.
Example 3 (a) Find the general solution to the system of D.E.'s
, where
3 (b) Find the solution in (a) that has the I.C.'s
,
and plot the solutions over the interval
.
Solution 3.