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Real time control of an adaptive vehicular occupant restraint system using intelligent control techniques.

机译:使用智能控制技术实时控制自适应车辆约束系统。

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摘要

Thousands of people die every year in car accidents. Existing restraint systems lack the capability of varying their output during the impact event. This research applies intelligent control techniques in the design of a real time controller for an adaptive restraint system to dramatically minimize occupant injuries during frontal crashes. The controller first task is to predict the maximum desired head and chest acceleration levels in a particular crash event. A methodology to develop a predictive Adaptive Neuro-Fuzzy Inference System (ANFIS) model to accomplish this aim is introduced. The controller's second task is to keep adjusting the restraint system continuously in order to maintain the actual head and chest accelerations below the targeted thresholds. Different configurations of fuzzy logic controllers FLCs are also designed to accomplish this aim. To optimize the FLCs, the controllers' parameters needed to be tuned. Tuning based on trial-and-error turned to be a tedious and time-consuming task and therefore a methodology to simplify the automatic tuning process of self organized FLCs is introduced. Due to the prohibitive cost of crash testing our system was designed and tested first with a lumped parameter model, second with a multi-body model and finally by using a complete crash simulation environment that link Madymo and Matlab.
机译:每年有数千人死于车祸。现有的约束系统缺乏在撞击事件期间改变其输出的能力。这项研究将智能控制技术应用于自适应约束系统的实时控制器的设计中,以最大程度地减少正面碰撞期间的乘员伤害。控制器的首要任务是预测特定碰撞事件中所需的最大头部和胸部加速度水平。介绍了一种开发预测性自适应神经模糊推理系统(ANFIS)模型以实现此目标的方法。控制器的第二项任务是持续调整约束系统,以将实际的头部和胸部加速度保持在目标阈值以下。还设计了模糊逻辑控制器FLC的不同配置来实现此目的。为了优化FLC,需要调整控制器的参数。基于试错法的调优是一项繁琐且耗时的任务,因此,引入了一种简化自组织FLC的自动调优过程的方法。由于碰撞测试的成本过高,因此我们的系统的设计和测试首先是使用集总参数模型,然后是多体模型,最后是使用连接Madymo和Matlab的完整碰撞仿真环境。

著录项

  • 作者

    Murad, Mohannad.;

  • 作者单位

    Oakland University.;

  • 授予单位 Oakland University.;
  • 学科 Engineering Automotive.Engineering System Science.Engineering Electronics and Electrical.
  • 学位 Ph.D.
  • 年度 2009
  • 页码 136 p.
  • 总页数 136
  • 原文格式 PDF
  • 正文语种 eng
  • 中图分类
  • 关键词

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