Coupled Oscillator: Hellie: Difference between revisions
Jump to navigation
Jump to search
Line 30: | Line 30: | ||
\begin{bmatrix} | \begin{bmatrix} | ||
0&1&0&0 \\ | 0&1&0&0 \\ | ||
\frac{(k_1-k_2)}{m_1}&0&\frac{-k_1}{m_1}&0 \\ | |||
0&0&0&1 \\ | 0&0&0&1 \\ | ||
\frac{k_1}{m_2}&0&\frac{(k_1+k_2)}{m_2}&0 | |||
\end{bmatrix} | \end{bmatrix} | ||
Line 61: | Line 61: | ||
Eigenmodes | Eigenmodes | ||
:There are three eigenmodes for the system | |||
::1) m1 and m2 oscillating together | |||
::2) m1 and m2 oscillating at exactly a half period difference | |||
::3) m1 and m2 oscillating at different times | |||
Solve Using the Matrix Exponential | |||
Written by: Andrew Hellie | Written by: Andrew Hellie |
Revision as of 15:36, 25 November 2009
Problem Statement
Write up on the Wiki a solution of a coupled oscillator problem like the coupled pendulum. Use State Space methods. Describe the eigenmodes of the system.
Initial Conditions:
State Equations
=
Eigenmodes
- There are three eigenmodes for the system
- 1) m1 and m2 oscillating together
- 2) m1 and m2 oscillating at exactly a half period difference
- 3) m1 and m2 oscillating at different times
Solve Using the Matrix Exponential
Written by: Andrew Hellie