Industry-Driven Approach for ANFIS-Based Intelligent Control Suspension System with MR Damper for Enhanced Ride Quality in Passenger Rail Vehicles for Technological Investigations

IF 1.2 4区 综合性期刊 Q3 MULTIDISCIPLINARY SCIENCES
Sunil Kumar Sharma, Rakesh Chandmal Sharma, Shilpi Lavania, Srihari Palli, Mohd Avesh
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引用次数: 0

Abstract

This research offers a scientific, industry-driven approach to studying the impact of acceleration and displacement reactions on ride comfort, handling, and safety in automobile suspension design. Different suspension systems were tested at a maximum speed of 240 km/hr, with the Intelligent Control Suspension System (ICSS) and the Passive Suspension System (PSS) standing out. RMS acceleration and displacement data, as well as ride quality and comfort parameters, were used to make the comparisons. Acceleration attenuation studies reveal that the ICSS is superior than the PSS, with reductions ranging from 7.64 to 11.66% across different ICSS configurations. Displacement values improve significantly using ICSS, obtaining reductions ranging from 25.89 to 55.80%. With the application of ICSS, ride quality and comfort indices improve by 8.19 to 31.50%. These findings show that the ICSS is very successful in reducing discomfort caused by rail vibrations and improving passenger comfort. This research emphasizes the significance of acceleration and displacement responses in suspension design and advocates for the use of ICSS for more efficient and pleasant train travel. The adaptable nature of ICSS allows for real-time optimization of suspension settings, which contributes to the development of a sustainable and enjoyable railway sector.

Abstract Image

Abstract Image

基于anfiss的MR阻尼器智能控制悬架系统的工业驱动技术研究
本研究为研究汽车悬架设计中加速度和位移反应对乘坐舒适性、操控性和安全性的影响提供了一种科学的、工业驱动的方法。不同的悬架系统在最高时速240公里的情况下进行了测试,其中智能控制悬架系统(ICSS)和被动悬架系统(PSS)脱颖而出。使用均方根加速度和位移数据以及平顺性和舒适性参数进行比较。加速度衰减研究表明,ICSS优于PSS,在不同的ICSS配置下,加速度衰减幅度为7.64 ~ 11.66%。使用ICSS后,位移值显著提高,减小幅度在25.89 ~ 55.80%之间。应用ICSS后,乘坐质量和舒适性指标提高了8.19% ~ 31.50%。这些发现表明,ICSS在减少铁路振动引起的不适和提高乘客舒适度方面非常成功。本研究强调了悬架设计中加速度和位移响应的重要性,并提倡使用ICSS来提高火车旅行的效率和舒适性。ICSS的适应性允许实时优化悬挂设置,这有助于可持续发展和愉快的铁路部门。
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来源期刊
National Academy Science Letters
National Academy Science Letters 综合性期刊-综合性期刊
CiteScore
2.20
自引率
0.00%
发文量
86
审稿时长
12 months
期刊介绍: The National Academy Science Letters is published by the National Academy of Sciences, India, since 1978. The publication of this unique journal was started with a view to give quick and wide publicity to the innovations in all fields of science
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