My Automation exam included the analysis of dynamic systems. I realized how powerful the matrix representation of the equations for a LTI is. A complete system ruled by multiple linear differential equations can be solved just using linear algebra and laplace transform. I love math
Maaaaan, we did that diagonalization a couple quarters ago but I was never told that c1e(eig)t[] + c2e(eig)t[] trick! That would've made stuff waaaaay smoother!
Thanks so much for making these videos. I'm taking Differential Equations now, and I believe next week will involved such systems of differential equations. I'm excited to connect the less intuitive way I'm sure will be presented with your Linear-Algebra-ized method.
I wonder what happens if the matrix is not similar to a diagonal matrix, though... do you use at that point Jordan's canonical form on the complex form of the matrix?
This is great. Thanks, Dr. P.
I have never seen anyone quite so enthusiastic about a clever way to solve a math problem.
Okkaaay, all these 0 make calculations more easy, now I see why we would diagonalize. Thank you for opening my eyes.
My Automation exam included the analysis of dynamic systems. I realized how powerful the matrix representation of the equations for a LTI is. A complete system ruled by multiple linear differential equations can be solved just using linear algebra and laplace transform. I love math
Maaaaan, we did that diagonalization a couple quarters ago but I was never told that c1e(eig)t[] + c2e(eig)t[] trick! That would've made stuff waaaaay smoother!
A nice connection well put as usual sir. Thank you for the upload! :D
neat! i've never seen it solved using this detailed, making-everything-understandable-and-obvious method. thanks! ;)
Thanks so much for making these videos. I'm taking Differential Equations now, and I believe next week will involved such systems of differential equations. I'm excited to connect the less intuitive way I'm sure will be presented with your Linear-Algebra-ized method.
Such a great explenation .
Thank u
Great work as always!
System of non homogeneous differential equations ?!!
Does this also work with systems where the diff. eq. have non-constant coefficients? If yes this method is superior to bprp's D-notation.
Wonderful !
Make a video about Euler's Identity
What does Picard iteration look like using linear algebra?
Solving system of ode by converting to symmetrical form and using so called first integrals is nice way
And how to solve the system if the matrix is not diagonalizable ?
Jordan form
I wonder what happens if the matrix is not similar to a diagonal matrix, though... do you use at that point Jordan's canonical form on the complex form of the matrix?
Yep :)
Can you show how to use this to find a general solution to an non-homogeneous system?
There’s a video on variation of parameters
Thanks!
Amazing!! :0
Very nice! :D
Good
neat :>
Linear AlgeBruh