Advanced Automation

[lecture #1] 2011.9.1 review of classical control theory

[lecture #2] 2011.9.8 CACSD introduction with review of classical control theory

[lecture #3] 2011.9.15 given by Prof. Kimura cancelled

[lecture #4] 2011.9.22 given by Prof. Kimura cancelled

[lecture #5] 2011.9.29 given by Prof. Kimura cancelled

supplementary lectures will be given by Prof. Kimura.

[lecture #3] 2011.10.6 CACSD introduction with review of classical and modern control theory

  1. relationship between TF and SSR (higher order case)
  2. open-loop stability
    • can be checked by poles of TF and eigenvalues of A-matrix in SSR
  3. closed-loop stability
    • can be checked graphically by Nyquist stability criterion and Bode plot with GM(gain margin) and PM(phase margin)
    • can be checked numerically by poles of closed-loop TF and eigenvalues of A-matrix in closed-loop SSR
%-- 10/6/2011 1:25 PM --%
ls
ex1006_1
ex1006_2
ex1006_3
grid on
-0.8*1.5
ex1006_4

[lecture #4] 2011.10.13 Intro. to robust control theory (H infinity control theory)

s = tf('s');
G = 1/(s+1);
norm(G, inf)
G = 1/(s^2+0.1*s+1);
norm(G, inf)
bode(G)
ex1013_1
ex1013_2

[lecture #5] 2011.10.7 Introduction to Robust Control (cont.)

  1. a class used to represent plant uncertainty and/or perturbation ... H infinity norm
  2. small gain theorem
    • connects the closed-loop H infinity norm and robust stability condition
    • sketch proof ... Nyquist stability criterion
  3. practical example of robust stabilization problem
%-- 10/20/2011 1:41 PM --%
ex1020_1
ex1020_2
ex1020_3
mod1020
c
c = 0.8

[lecture #6] 2011.10.27 norm (vector space, normed linear space), singular value, mixed sensitivity problem

[lecture #8] 2011.11.10 state space representation of connected system, state space representation of generalized plant for various control problem, mixed sensitivity problem (by Prof. Kimura)

see Prof. Kimura's page

!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!! the followings are under construction !!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!

#ref(): File not found: "2010.10.28-1.jpg" at page "授業/制御工学特論2011"

#ref(): File not found: "2010.10.28-2.jpg" at page "授業/制御工学特論2011"

#ref(): File not found: "ex26.m" at page "授業/制御工学特論2011"

[lecture #9] 2010.11.4 robust control design example: Robust Control System Synthesis for Pneumatic Systems (given by Prof. Kimura)

see RubustControlOfPneumatic-e.pdf in Prof. Kimura's homepage for detail

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[lecture #10] 2010.11.11 robust control design example (cont.)

  1. Design H infinity controller with Eqs.(41)-(47) and generalized plant depicted in Fig.3 in the pdf file.
    1. Confirm the following m-file for design:

      #ref(): File not found: "pneum.m" at page "授業/制御工学特論2011"

      #ref(): File not found: "pneum_ans.m" at page "授業/制御工学特論2011"

    2. Derive the generalized plant by hand and correct the m-file.
    3. Run the m-file to find controller.
  2. Simulation

    #ref(): File not found: "simu_pneum.mdl" at page "授業/制御工学特論2011"

    #ref(): File not found: "simu_pneum_noise.mdl" at page "授業/制御工学特論2011"

simu_pneum
plot(t, y, 'r', t, r, 'b');

simu_pneum_noise
plot(t, y, 'r', t, n, 'b')

#ref(): File not found: "2010.11.11-1.jpg" at page "授業/制御工学特論2011"

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[lecture #11] 2010.11.18 robust control design example (cont.) (given by Prof. Kimura)

Exercise

  1. step response
  2. noise response (noise type: step, sinusoidal wave 1Hz, 50Hz, 500Hz)
  3. initial response (x(0) = [1;0;0])

#ref(): File not found: "2010.11.18-1.jpg" at page "授業/制御工学特論2011"

[lecture #12] 2010.11.25 Speed control of two inertia system with servo motor (1/3)

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[lecture #13] 2010.12.2 Speed control of two inertia system with servo motor (2/3)

  1. design your controller so that the system performance is improved compared with the given example above
  2. Draw the following figures and explain the difference between two control systems:
    1. bode diagram of controllers
    2. gain characteristic of closed-loop systems
    3. time response of control experiment
  3. Why is the performance of your system improved(or unfortunately decreased)?
    • due date: 28th(Tue) Dec 17:00
    • submit your report(pdf or doc) by e-mail to kobayasi@nagaokaut.ac.jp
    • You can use Japanese
    • maximum controller order is 20
    • submit your cont.dat and cont_order.dat to kobayasi@nagaokaut.ac.jp not later than 24th Dec

[lecture #14] 2010.12.9 Speed control of two inertia system with servo motor (3/3)

Due to a dimension change of the driven shaft, frequency response experiment has been re-conducted. Please use the following fixed files instead of the ones introduced on the previous lecture.

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[lecture #15] 2010.12.16 Speed control of two inertia system with servo motor (cont.)

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