Active force control for semi-active suspension with magnetorheological damper

The suspension system of an automobile is responsible for smoothing out the ride and maintaining control of the vehicle. However, traditional passive suspension system does not achieve satisfactory performance due to a lack of control over the damping force. Semi-active suspension (SAS) systems are...

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Main Authors: Liu, Yunyun, Nurshahiera, Aina, As'arry, Azizan, Abas, Hesham Ahmed Abdul Mutleba, Hairuddin, Abdul Aziz, Hassan, Mohd Khair
Format: Article
Language:English
Published: Semarak Ilmu Publishing 2024
Online Access:http://psasir.upm.edu.my/id/eprint/111980/1/Full%20Paper%20ARAM122_N1_P156_162.pdf
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author Liu, Yunyun
Nurshahiera, Aina
As'arry, Azizan
Abas, Hesham Ahmed Abdul Mutleba
Hairuddin, Abdul Aziz
Hassan, Mohd Khair
author_facet Liu, Yunyun
Nurshahiera, Aina
As'arry, Azizan
Abas, Hesham Ahmed Abdul Mutleba
Hairuddin, Abdul Aziz
Hassan, Mohd Khair
author_sort Liu, Yunyun
collection UPM
description The suspension system of an automobile is responsible for smoothing out the ride and maintaining control of the vehicle. However, traditional passive suspension system does not achieve satisfactory performance due to a lack of control over the damping force. Semi-active suspension (SAS) systems are now even more feasible because to their reduced power consumption, which is a result of the quick advancement of electronic sensors and actuator technologyOne of the greatest and most dependable semi-active control components available for suspension systems that can further enhance ride comfort is the magnetorheological (MR) damper, which produces a regulated damping force.This study focuses on developing a controller scheme named Fuzzy logic with Proportional-Integral-Derivative (Fuzzy-PID) and Fuzzy logic with Propor-tional-Integral-Derivative and Active Force Control (Fuzzy-PID-AFC) controllers to control the damping force of the MR damper to achieve better ride comfort by reducing vibration from the simulated road bump. A sinusoidal vibration source is applied to the quarter car test rig to investigate the improvement of ride comfort as well as to ascertain the new hybrid Fuzzy-PID-AFC controller robustness. The study found that a comparison of sprung mass acceleration signals from the passive suspension with Fuzzy-PID and Fuzzy-PID-AFC shows improvement to the sprung mass acceleration by 17.7 % and 32 %, respectively. As a result, the hybrid Fuzzy-PID-AFC controller outperforms the conventional Fuzzy-PID controller in the vehicle vibration control of the SAS system with MR damper. The control system may be further improved by implementing a hybridized iterative learning method to get a more accurate and dynamic estimation of mass for the Active Force Control controller.
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spelling upm.eprints-1119802024-09-17T02:24:43Z http://psasir.upm.edu.my/id/eprint/111980/ Active force control for semi-active suspension with magnetorheological damper Liu, Yunyun Nurshahiera, Aina As'arry, Azizan Abas, Hesham Ahmed Abdul Mutleba Hairuddin, Abdul Aziz Hassan, Mohd Khair The suspension system of an automobile is responsible for smoothing out the ride and maintaining control of the vehicle. However, traditional passive suspension system does not achieve satisfactory performance due to a lack of control over the damping force. Semi-active suspension (SAS) systems are now even more feasible because to their reduced power consumption, which is a result of the quick advancement of electronic sensors and actuator technologyOne of the greatest and most dependable semi-active control components available for suspension systems that can further enhance ride comfort is the magnetorheological (MR) damper, which produces a regulated damping force.This study focuses on developing a controller scheme named Fuzzy logic with Proportional-Integral-Derivative (Fuzzy-PID) and Fuzzy logic with Propor-tional-Integral-Derivative and Active Force Control (Fuzzy-PID-AFC) controllers to control the damping force of the MR damper to achieve better ride comfort by reducing vibration from the simulated road bump. A sinusoidal vibration source is applied to the quarter car test rig to investigate the improvement of ride comfort as well as to ascertain the new hybrid Fuzzy-PID-AFC controller robustness. The study found that a comparison of sprung mass acceleration signals from the passive suspension with Fuzzy-PID and Fuzzy-PID-AFC shows improvement to the sprung mass acceleration by 17.7 % and 32 %, respectively. As a result, the hybrid Fuzzy-PID-AFC controller outperforms the conventional Fuzzy-PID controller in the vehicle vibration control of the SAS system with MR damper. The control system may be further improved by implementing a hybridized iterative learning method to get a more accurate and dynamic estimation of mass for the Active Force Control controller. Semarak Ilmu Publishing 2024-07-30 Article PeerReviewed text en http://psasir.upm.edu.my/id/eprint/111980/1/Full%20Paper%20ARAM122_N1_P156_162.pdf Liu, Yunyun and Nurshahiera, Aina and As'arry, Azizan and Abas, Hesham Ahmed Abdul Mutleba and Hairuddin, Abdul Aziz and Hassan, Mohd Khair (2024) Active force control for semi-active suspension with magnetorheological damper. Journal of Advanced Research in Applied Mechanics, 122 (1). pp. 156-162. ISSN 2289-7895 https://semarakilmu.com.my/journals/index.php/appl_mech/article/view/9660 10.37934/aram.122.1.156162
spellingShingle Liu, Yunyun
Nurshahiera, Aina
As'arry, Azizan
Abas, Hesham Ahmed Abdul Mutleba
Hairuddin, Abdul Aziz
Hassan, Mohd Khair
Active force control for semi-active suspension with magnetorheological damper
title Active force control for semi-active suspension with magnetorheological damper
title_full Active force control for semi-active suspension with magnetorheological damper
title_fullStr Active force control for semi-active suspension with magnetorheological damper
title_full_unstemmed Active force control for semi-active suspension with magnetorheological damper
title_short Active force control for semi-active suspension with magnetorheological damper
title_sort active force control for semi active suspension with magnetorheological damper
url http://psasir.upm.edu.my/id/eprint/111980/1/Full%20Paper%20ARAM122_N1_P156_162.pdf
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