Kontrol Sistemleri · Dijital ders notu
Modeling, Laplace Transform & Partial Fractions
- Ders
- Kontrol Sistemleri (ELEC322)
- Dönem
- 6. Dönem · 2023–2024 Bahar
- Biçim
- PDF · 8 sayfa · 0,1 MB · el yazısı görünümlü LaTeX
- Orijinal not
- Control-Systems-lecture-2.pdf

The digital notes were created from the handwritten notes with the help of Claude (Anthropic); they are meant as a supplementary resource and may contain errors. Always rely on the original notes and the official course materials.
Bu notta neler var?
- Modeling Dynamical Systems
- Laplace Transform
- Linearity theorem
- Scaling
- Differention
- Integration
- Partial fraction expansion (PFE)
- Example
Notun metni
Düz metin olarak göster (formüller ve çizimler yoktur)
Modeling Dynamical Systems
→ Expression of system's behavior by some mathematical relations obtained by setting reasonable assumptions. Differential Eq, Integral Eq, Integro diff Eq
partial: number of independent variables is more than one continuous system
ordinary: Lumped/discretized
Lumped, discretizing (ayrık)
We have to talk about linear ODE's that change respect time
We use laplace to change differential equation to algebraic equation. ( s^2+s+a=r algebraic)
Differential theorem in laplace transform
output is y input is x
Most general ODE for a system.
Assuming that initial conditions are zero (to ignore transient respons)
Initial condition: n-1'e kadar
The max order of derivative define the output of the system
Impulse function in frequency domain
impulse response = T.F. (Transfer function)
zero initial condition
Find the D.E for the transfer function
Partial fraction expansion (PFE)
case 1: Poles are distinct and with multiplicity of unity!
tekrarlanmaz, the poles are unique, differents, not repeat
poles are = residues of the function
How to obtain the redisues.
Second method of residue calculation:
three poles of multiplicity one
case 2) Distinct poles of multiplicity k_i
Transfer function degree polynomial in the denominator: we expect n roots (poles)
make at least some potion of T.F. strictly proper (n>m)