M .task/backlog.data M .task/completed.data M .task/pending.data M .task/undo.data M "Zettelkasten/Permanent Notes/20250829114522-hybrid-systems.md" A "Zettelkasten/Permanent Notes/20250911165736-switched-systems.md" A "Zettelkasten/Permanent Notes/20250911170650-lipschitz-continuous.md" M "Zettelkasten/Permanent Notes/Literature Notes/LIT-20250911143337-multiple-lyapunov-functions-and-other-analysis-tools-for-swtiched-and-hybrid-systems.md"
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| id | title | type | created | modified | tags |
|---|---|---|---|---|---|
| 20250911165736 | Switched Systems | permanent | 2025-09-11T20:57:36Z | 2025-09-11T21:09:55Z |
Switched Systems
Switched systems are those that mix continuous and discrete dynamics. They are systems that are 'multimodal'. This means that they can have different continuous dynamic modes.
I'm borrowing form multiple-lyapunov-functions-and-other-analysis-tools-for-swtiched-and-hybrid-systems, but here's a short description of how they work.
A prototypical switched system is as follows:
\dot{x}(t)=f_i ( x(t)), \quad i \in Q \simeq {1,...,N}
with two conditions:
- Each
f_iis globally Lipschitz Continuous - The i's are picked in a way that there are finite switches in finite time.
There's also this thing called a continuous switched
system. A continuous switched system is one that does not
change continuous states when a switch occurs. That is to
say when switching from i to i':
f_i(x(t_i),t_i) = f_{i'}(x(t_{i'}),t_{i'})