DocumentCode :
2122477
Title :
Simulation research for quarter vehicle ABS on complex surface based on PID control
Author :
Qiang Fu ; Lijie Zhao ; Mingxiu Cai ; Mianhong Cheng ; Xueling Sun
Author_Institution :
Coll. of Mech. & Electr. Eng., Shenyang Aerosp. Univ., Shenyang, China
fYear :
2012
fDate :
21-23 April 2012
Firstpage :
2072
Lastpage :
2075
Abstract :
The braking dynamics model of quarter vehicle ABS is established. In order to consummate simulation content of vehicle Anti-lock Brake System on all road surfaces, this research analyses various road surfaces on the brake working conditions in allusion to the adhesion coefficient of road surface. The PID control algorithm of vehicle braking with slip rate as the control object is presented on complex surface based on PID control theory. Simulation model of quarter vehicle, complex surface model, PID control strategy model and simulation model of complex surface are established by the MATLAB/Simulink. The simulation tests of complex surface are designed to obtain curve change of vehicle speed and wheel velocity on different adhesion coefficient surface with single wheel vehicle. The graph proves that the PID control reduces concussion error of slip rate at 9.45%-22.55%. Curtailment rate of braking distance is 6.30%. Curtailment rate of braking time is 9.69%. Curtailment rate of saltation wheel velocity is 12.76%. Curtailment rate of saltation slip rate is 6.77%. Slip rate is changing in the best predetemine range. The working reliability is proved on complex surface by ABS PID control. The results show that the PID control system can improve braking efficiency.
Keywords :
braking; road vehicles; simulation; three-term control; vehicle dynamics; wheels; ABS PID control; MATLAB-Simulink; PID control algorithm; brake working conditions; braking distance curtailment rate; braking dynamics model; braking time curtailment rate; complex surface; complex surface simulation model; curtailment rate saltation wheel velocity; quarter vehicle ABS; quarter vehicle simulation model; road surface adhesion coefficient; saltation slip rate curtailment rate; simulation research; single wheel vehicle; vehicle antilock brake system simulation content consummation; Adhesives; Employee welfare; Mathematical model; Roads; Vehicle dynamics; Vehicles; Wheels; PID control; adhesion coefficient; braking distance; complex surface; simulation model; slip rate;
fLanguage :
English
Publisher :
ieee
Conference_Titel :
Consumer Electronics, Communications and Networks (CECNet), 2012 2nd International Conference on
Conference_Location :
Yichang
Print_ISBN :
978-1-4577-1414-6
Type :
conf
DOI :
10.1109/CECNet.2012.6201828
Filename :
6201828
Link To Document :
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