Abstract:
This study compares the performance of two control strategies, Linear Quadratic Regulator (LQR) and pole placement controller, in both active and passive suspension syste...Show MoreMetadata
Abstract:
This study compares the performance of two control strategies, Linear Quadratic Regulator (LQR) and pole placement controller, in both active and passive suspension systems. The investigation aims to evaluate the effectiveness of each strategy in enhancing ride comfort and rail handling capabilities. The research demonstrates that while the pole placement controller exhibits lower overshoot in the active suspension system compared to the passive system, the LQR controller significantly outperforms the pole placement controller in terms of minimizing overshoot and settling time. This indicates the superiority of the LQR controller for controlling the system's behavior, making it a more suitable choice for optimizing suspension systems. Furthermore, the analysis highlights that the control effort of the pole placement controller is significantly larger than that of the LQR controller, emphasizing the importance of efficiency and energy consumption in control strategy selection.
Date of Conference: 22-25 April 2024
Date Added to IEEE Xplore: 12 June 2024
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- IEEE Keywords
- Index Terms
- Suspension System ,
- Active Damping ,
- Linear Quadratic Regulator ,
- Vehicle Active Suspension ,
- Control System ,
- Control Efforts ,
- Settling Time ,
- Passive System ,
- Linear Quadratic Regulator Controller ,
- Mathematical Model ,
- State Variables ,
- State Space ,
- Weight Matrix ,
- Equations Of Motion ,
- Feedback Control ,
- State-space Model ,
- Input Matrix ,
- Newton’s Second Law ,
- Vehicle Dynamics ,
- Railway Vehicle ,
- Optimal Gain ,
- Propulsive Force ,
- Q-matrix ,
- Law Of Motion ,
- Vehicle Body ,
- Vehicle System ,
- Feedback Gain ,
- Body Acceleration ,
- Linear Time-invariant Systems
- Author Keywords
Keywords assist with retrieval of results and provide a means to discovering other relevant content. Learn more.
- IEEE Keywords
- Index Terms
- Suspension System ,
- Active Damping ,
- Linear Quadratic Regulator ,
- Vehicle Active Suspension ,
- Control System ,
- Control Efforts ,
- Settling Time ,
- Passive System ,
- Linear Quadratic Regulator Controller ,
- Mathematical Model ,
- State Variables ,
- State Space ,
- Weight Matrix ,
- Equations Of Motion ,
- Feedback Control ,
- State-space Model ,
- Input Matrix ,
- Newton’s Second Law ,
- Vehicle Dynamics ,
- Railway Vehicle ,
- Optimal Gain ,
- Propulsive Force ,
- Q-matrix ,
- Law Of Motion ,
- Vehicle Body ,
- Vehicle System ,
- Feedback Gain ,
- Body Acceleration ,
- Linear Time-invariant Systems
- Author Keywords