PI Controller for Active Twin-Accumulator Suspension with Optimized Parameters Based on a Quarter Model
Mohamed A. Hassan, Ali M. Abd-El-Tawwab, k. A. Abd El-gwwad, and M. M., M. Salem

TL;DR
This paper compares passive, optimized twin-accumulator, and active suspension systems using a quarter model, demonstrating that the active PI-controlled twin-accumulator suspension improves ride quality and handling over passive systems.
Contribution
It introduces a PI controller for active twin-accumulator suspension with optimized parameters based on a multi-objective evolutionary strategy.
Findings
Twin-accumulator suspension improves ride quality over passive systems.
PI controller enhances body and wheel displacement performance.
Active suspension reduces suspension displacement and tire load.
Abstract
This paper is primarily studying the behaver of the twin-accumulator suspension over the conventional passive system focusing on ride quality behavior and road holding. Therefore, a dynamic modeling of passive and twin-accumulator suspension for a quarter model is constructed. MATLAB Simulink environment is used to develop the suspension models. The simulation is applied with two different road disturbances, namely, step input and random input to disturb the suspension system. The optimum solution is obtained numerically by utilizing a multi-objective evolutionary strategy algorithm and employing a cost function that seeks to minimize the RMS value of the body acceleration, the suspension displacement as well as the dynamic tire load. Moreover, in this work, an active suspension system with PI controller is presented in order to improve the suspension performance criteria. The…
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Taxonomy
TopicsVibration Control and Rheological Fluids · Vehicle Dynamics and Control Systems · Soil Mechanics and Vehicle Dynamics
