5) Use the second-order Padé approximation to time delay and the Routh stability test to investigate the stability of the control system in Figure 5 for different values of K.\ $e^{-sT} \approx \frac{1 - sT/2 + s^2 T^2/12}{1 + sT/2 + s^2 T^2/12}$.\ r(t) + K $e^{-2s}/s$ y(t)\ Figure 5.
Added by Briana S.
Close
Step 1
The transfer function of the control system can be written as: G(s) = K * (1 - sT/2 + s^2T^2/12) / (1 + sT/2 + s^2T^2/12) Show more…
Show all steps
Your feedback will help us improve your experience
Gokul R Nair and 50 other Physics 102 Electricity and Magnetism educators are ready to help you.
Ask a new question
Labs
Want to see this concept in action?
Explore this concept interactively to see how it behaves as you change inputs.
Key Concepts
Recommended Videos
A control system has the structure shown in Figure 2. (A) Determine the range of K for a stable system using the Routh stability criterion, then fill in the table above. (B) Find the value of K and natural frequency at ζ=0.7
Sikandar B.
Design the value of gain K, for the feedback control system shown in Figure below so that the system will respond with 10% overshoot, also find the rise time and settling time.
Adi S.
Q2:A: Consider the sampled data control system shown in Fig.(3). Find an equation for the response C(kT), if the input R(s) is unit step .Then find the stability for the system and draw the response.
Recommended Textbooks
University Physics with Modern Physics
Physics: Principles with Applications
Fundamentals of Physics
Watch the video solution with this free unlock.
EMAIL
PASSWORD