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Vibration Control of Automotive Drive System With Nonlinear Gear Backlash
Author(s) -
Heisei Yonezawa,
Itsuro KAJIWARA,
Shota SATO,
Chiaki Nishidome,
Masato Sakata,
Takashi HATANO,
Shigeki Hiramatsu
Publication year - 2019
Publication title -
journal of dynamic systems measurement and control
Language(s) - English
Resource type - Journals
eISSN - 1528-9028
pISSN - 0022-0434
DOI - 10.1115/1.4044614
Subject(s) - backlash , control theory (sociology) , automotive industry , controller (irrigation) , nonlinear system , vibration , control engineering , engineering , control system , torque , servomechanism , compensation (psychology) , computer science , control (management) , mechanical engineering , quantum mechanics , artificial intelligence , biology , aerospace engineering , thermodynamics , psychology , psychoanalysis , agronomy , physics , electrical engineering
In automotive drive systems, differential gear backlash degrades the control performance. Specifically, a shock torque, which is generated when the gear runs freely and collides with the backlash, increases the vibration amplitude. Consequently, it is important to develop a vibration control method to suppress the adverse effect of nonlinearity due to backlash. Furthermore, considering implementations on actual vehicles, design at the development site, and mass production, a simple and practical control method is necessary. This paper describes the configuration of a basic experimental device, which abstracts an actual vehicle to focus on the influence due to backlash while reflecting the basic structure of an automotive drive system. Next, a basic controller is designed using a mixed H2/H∞ control theory, and a servo system is constructed to track the target value. A simple control mode switching algorithm is proposed for backlash compensation. This algorithm is suited to practical applications because it uses only an output without a state estimation and it compensates for performance deteriorations due to the nonlinearity by operating a single linear controller. Finally, simulations and experiments verify the effectiveness of the proposed control system.

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