DocumentCode :
3236869
Title :
The Design and Application for a Bio-inspired Nonlinear Intelligent Controller
Author :
Liu Bao ; Liu Fei ; Wang Junhong
Author_Institution :
Inf. & Control Eng. Coll., China Univ. of Pet., Qingdao, China
fYear :
2012
fDate :
6-8 Nov. 2012
Firstpage :
189
Lastpage :
192
Abstract :
Based on the bi-modulation mechanism in body, we present reinforcement and suppress intelligent controller (RSIC), and design its control algorithm in this paper. Corresponding to the relative physiological system, we design the structure of RSIC, which includes super management unit (SMU), reinforcement control unit (RCU), suppress control unit (SCU), and assistant control unit (ACU). When set point changes or great error appears, the RCU first takes an effect. And the RCU will output a high or low limit value with a bionic filter, which can accelerate the rise time of control system. After a set time, the SCU will be enabled and output a reverse output compare to output of RCU with another bionic filter, which may reduce or avoid the overshoot or vibration. The final comprehensive effect of RCU and SCU is the coming control stable output. When the control system gets a stable status, the ACU will work with the conventional PI law to improve the control accuracy. SMU can make RCU, SCU, and ACU cooperate with each other. The simulation results indicate that RSIC has better control performance than conventional PID control algorithm.
Keywords :
PI control; bio-inspired materials; control system synthesis; intelligent control; nonlinear control systems; stability; ACU; PI law; RCU; RSIC; SCU; SMU; assistant control unit; bio-inspired nonlinear intelligent controller application; bio-inspired nonlinear intelligent controller design; bionic filter; body bimodulation mechanism; control accuracy improvement; control stable output; overshoot avoidance; overshoot reduction; physiological system; reinforcement control unit; reinforcement-and-suppress intelligent controller; super management unit; suppress control unit; vibration avoidance; vibration reduction; Biological system modeling; Control systems; Educational institutions; Equations; Indexes; Mathematical model; Process control; cooperative control; intelligent; nonlinear; reinforcement; suppress;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Intelligent Systems (GCIS), 2012 Third Global Congress on
Conference_Location :
Wuhan
Print_ISBN :
978-1-4673-3072-5
Type :
conf
DOI :
10.1109/GCIS.2012.80
Filename :
6449514
Link To Document :
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