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Experimental Study on Hydraulic Pressure Feedforward and Feedback PID Control of I-EHB System with Friction Disturbance
Technical Paper
2021-01-0979
ISSN: 0148-7191, e-ISSN: 2688-3627
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SAE WCX Digital Summit
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English
Abstract
This paper designs the important components and structure of the integrated electro-hydraulic brake system (I-EHB). Firstly, the simplified linear system is modeled, and the transfer function without considering the nonlinear disturbance such as system friction is derived, and the correctness of the linear system is preliminarily verified by AMESim. Then set up the I-EHB system test bench, and use the Stribeck friction model to identify the friction torque parameters in the static and kinetic friction stages of the system to obtain a more accurate friction model. Finally, based on the I-EHB system model of friction disturbance, a pressure-speed-current three-loop cascade PID controller is designed, and a feedforward controller based on the system model is added to form the control structure of “pressure feedforward compensation + pressure-speed-current closed-loop cascade PID”. Then tests are carried out on benches, and the I-EHB system achieves a faster and more stable pressure response than traditional PID control.
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Citation
Zhao, S., Chu, W., and Shangguan, W., "Experimental Study on Hydraulic Pressure Feedforward and Feedback PID Control of I-EHB System with Friction Disturbance," SAE Technical Paper 2021-01-0979, 2021, https://doi.org/10.4271/2021-01-0979.Data Sets - Support Documents
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References
- de Castro , R. , Todeschini , F. , Araújo , R.E. et al. Adaptive-Robust Friction Compensation in a Hybrid Brake-by-Wire Actuator Proceedings of the Institution of Mechanical Engineers, Part I: Journal of Systems and Control Engineering 2013
- Zhuoping , Y. , Wei , H. , Lu , X. , and Songyun , X. Integrated Electronic Hydraulic Brake System Hydraulic Pressure Control Based on Byrnes-Isidori Standard Chinese Journal of Mechanical Engineering 52 22 92 100 2016
- Zhuoping , Y. , Songyun , X. , and Lu , X. Integrated Electronic Hydraulic Brake System Control Based on Flutter Compensation Journal of Tongji University (Natural Science Edition) 43 7 1063 1068 2015
- Ohkubo , N. , Matsushita , S. , Ueno , M. et al. Application of Electric Servo Brake System to Plug-in Hybrid Vehicle SAE International Journal of Passenger Cars-Electronic and Electrical Systems 6 1 255 260 2013
- Hao , L. , En , L. , and Zize , L. An Electro-Hydraulic Servo System Adaptive Backstepping Control with Nonlinear Uncertain Parameters Control Theory and Application 33 2 181 188 2016
- Leiber , T. , Köglsperger , C. , and Unterfrauner , V. Modular Brake System with Integrated Functionalities ATZ Worldwide eMagazine 113 6 20 25 2011
- Shangguan , W.B. , Tuqiang , L. , Kaihong , J. , and Wen , T. Study on Modeling and Pressure Control Method of Integrated Electro-Hydraulic Braking System Journal of Beijing Institute of Technology 39 4 414 418 2019
- Todeschini , F. , Corno , M. , Panzani , G. et al. Adaptive Position-Pressure Control of a Brake by Wire Actuator for Sport Motorcycles European Journal of Control 20 2 79 86 2014
- Todeschini , F. , Corno , M. , Panzani , G. et al. Adaptive Cascade Control of a Brake-By-Wire Actuator for Sport Motorcycles IEEE/ASME Transactions on Mechatronics 20 3 1310 1319 2015
- Todeschini , F. , Formentin , S. , Panzani , G. , Corno , M. et al. Nonlinear Pressure Control for BBW Systems via Dead-Zone and Antiwindup Compensation IEEE Transactions on Control Systems Technology 24 4 1419 1431 July 2016 10.1109/TCST.2015.2483562
- Yang , I.J. , Choi , K. , and Huh , K. Development of an Electric Booster System Using Sliding Mode Control for Improved Braking Performance International Journal of Automotive Technology 13 6 1005 1011 2012
- De Castro , R. , Todeschini , F. , Araujo , R.E. et al. Adaptive-Robust Friction Compensation in a Hybrid Brake-by-Wire Actuator Proceedings of the Institution of Mechanical Engineers, Part I: Journal of Systems and Control Engineering 228 10 769 786 2014
- Xingquan , S. Hydraulic Transmission and Control National Defense Industry Press 2016 978-7-118-03635-0
- Merritt , H.E. Hydraulic Control Systems Science Press 1976 360 375
- Shaolei , Y. 2019
- Yong , J. , Gao , F. , Ding , N. et al. Pressure-Tracking Control of a Novel Electro-Hydraulic Braking System Considering Friction Compensation Journal of Central South University 24 8 1909 1921 2017
- Tuqiang , L. Design of Integrated Electro-Hydraulic Braking System and Research on Pressure Control Method 2018
- Zhuoping , Y. , Songyun , X. , and Lu , X. Integrated Electronic Hydraulic Brake System Control Based on Flutter Compensation Journal of Tongji University (Natural Science Edition) 43 7 1063 1068 2015
- Xiangzhen , K. , Yong , W. , and Shouyong , J. Friction Flutter Compensation Based on Stribeck Model Chinese Journal of Mechanical Engineering 46 5 68 73 2010
- Park , G. , and Choi , S.B. Clamping Force Control Based on Dynamic Model Estimation for Electromechanical Brakes Proceedings of the Institution of Mechanical Engineers Part D, Journal of Automobile Engineering 2017
- Zhuoping , Y. , Jie , H. , and Lu , X. Integrated Electronic Hydraulic Braking System Hydraulic Control Based on Command Feed- Forward Automotive Technology 7 7 11 2016
- Huan , H. , Lei , Q. , and Shuai , W. Research on Position Servo System Based on Compound Feedforward Fuzzy PID Measurement and Control Technology 37 12 128 136 2018
- Wangsheng , Z. 2008
- Shu , Z. An Improved LUCAS Order Reduction Method Journal of Harbin Engineering University 1 91 97 1988