Mechanical Engineering Science

Experimental Simulation and Verification of Position Servo Control of Mechanical Rodless Cylinder

ZHANGYeming, LIKaimin, YUEHongwei, HEShuangyang, LIDongyuan, LYUKun, WEIFeng

Abstract


In order to improve the position control accuracy of rodless cylinder, the valve control cylinder system based on pneumatic proportional servo is studied deeply. According to the working principle of the mechanical rodless cylinder control system, under the condition of uniform speed, the driving voltage of the proportional valve is changed to measure multiple sets of friction force and corresponding velocity data. Analyzed the physical structure of each component in pneumatic system, established the mathematical model of pneumatic system, and introduced MATLAB system identification toolbox to identify the parameters of the transfer function. and the experiment verifies its correctness.


Keywords


mechanical rodless cylinder; friction characteristics; mathematical model; parameter identification

Full Text:

PDF

References


SMC (China) Co., Ltd. Modern Practical Pneumatic technology[M]. Beijing: Machinery Industry Press ,2008.

Ming Y. Air compressor efficiency in a Vietnamese enterprise [J]. Energy Policy, 2009, 37(6): 2327-2337.

Zhang Yeming, Cai Maolin. Overall Life Cycle Comprehensive Assessment of Pneumatic and Electric Actuator[J]. Chinese Journal of Mechanical Engineering, 2014, 27(3):584-594.

Zhang Y, Li K, Wei S, et al. Pneumatic Rotary Actuator Position Servo System Based on ADE-PD Control [J]. Applied Sciences, 2018, 8(3): 406.

Yeming Zhang, Ke Li, Geng Wang, Maolin Cai. Nonlinear model establishment and experimental verification of a pneumatic rotary actuator position servo system[J]. Energies 2019, 12(6), 1096.

Yeming Zhang, Hongwei YUE, Ke Li, Maolin Cai. Analysis of power matching on energy saving of pneumatic rotary actuator servo-control system[J]. Chinese Journal of Mechanical Engineering, 2020, 33:30.

Pedro Luís Andrighetto, Antonio Carlos Valdiero, Leonardo Carlotto. Study of the frictionbehavior in industrial pneumatic actuators. ABCM Symposium Series in Mechatronics,2006, 2: 369-376.

Lee E. Schroederl. Experimental Study of Friction in a Pneumatic Actuator at ConstantVelocity. Jourmal of Dynamic Systems, Measurement, and Control, 1993, 9,Vol. 115:575-577.

Zhang Baihai, Cheng Haifeng, Ma Yanfeng. Experimental study of cylinder friction. Beijing Institute of Technology Journal ,2005,(6):483-487.

Zhang Baihai, Peng Guangzheng, Liu Qiong, Study on the Influence of Temperature on Friction Characteristics of Cylinder.

T. Raparelli, A. Manuello, Bertettot and L. Mazzat. Experimental and Numerical Study ofFriction in an Electrometric Seal for Pneumatic Cylinders. Tribology International. 1997,Volume 30 Number 7: 547-557.

Belforte. G Raparelli. T, Velardocchia. M. Study of the Behavior of Lip Seals in PneumaticActuators.. Lubr. Eng,1993, 45: 775-780.

Conte M, Manuello A, Mazza L, Visconte C. Measurement of contact pressure in pneumaticactuator seals. In: Proceedings of the AITC-AIT 2006 international conference on tribology,2006.

G. Belforte, M. Conte, A. Manuello Bertetto, L. Mazza, C. Visconte. Experimental andnumerical evaluation of contact pressure in pneumatic seals. Tribology International. 2009,42:169- 175.

Liu Xiangming, Li Liang. LabVIEW Electro-hydraulic System Identification [J]. Machine and Hydraulic ,2007,35(9):143-145.

Song Tao, Yu Cungui. Simulation based on MATLAB/Simulink hydraulic servo system identification [J].Hydraulic and Pneumatic ,2015,(10):120-123.

Kong Xiangzhen. Dynamic Characteristics and Control of Pneumatic Proportional System [D]. Jinan; Shandong University ,2007.




DOI: https://doi.org/10.33142/mes.v2i2.3163

Refbacks

  • There are currently no refbacks.


Copyright (c) 2020 Yeming ZHANG, Kaimin LI, Hongwei YUE, Shuangyang HE, Dongyuan LI, Kun LYU, Feng WEI

Creative Commons License
This work is licensed under a Creative Commons Attribution-NonCommercial 4.0 International License.