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Performance evaluation of a fuzzy logic based Kalman filter for target tracking13;

机译:目标跟踪的基于模糊逻辑的卡尔曼滤波器的性能评估13;

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摘要

The Kalman filter is globally accepted by estimation community and frequently applied in many real:time applications such as tracking, navigation, guidance, control process etc. The optimality of Kalman filter depends upon how accurate the mathematical models for actual dynamical system and measurement device are known. The performance of this filter also depends on tuning parameters such as process noise variance (0). and measurement noise variance (R). However, there can be13; situations when exact mathematical models may not be known or too difficult to model. In such cases, it is widely experienced that modelling errors are often compensated by overloading the tuning13; parameters of the filter by using trial and error method. But this becomes extra burden to filter13; designer and time-consuming task. To tackle such problems, Fuzzy logic can be one of the promising13; solutions that uses an intuitive experience based-approach for problems that are too difficult to model mathematically and for filters difficult to tune properly. This paper considers the combination of13; Fuzzy logic and Kalman filter that have traditionally been considered to be radically different. The13; former is considered heuristic and the latter statistical filtering. Two schemes such as Kalman filter13; and Fuzzy Kalman filter are applied for target tracking application and their performances evaluated13; using several numerical examples. The approach is relatively novel. Also comparison with one of the13; existing adaptive tuning algorithms is carried out. The performance is evaluated using certain error-13; based criteria.
机译:卡尔曼滤波器已被估计界广泛接受,并经常应用于许多实时应用中,例如跟踪,导航,制导,控制过程等。卡尔曼滤波器的最优性取决于实际动力系统和测量设备的数学模型的精确度。众所周知。该滤波器的性能还取决于诸如过程噪声方差(0)之类的调整参数。和测量噪声方差(R)。但是,可以有13个。确切的数学模型可能未知或太难建模的情况。在这种情况下,经验丰富的经验通常是通过使调整过载来补偿建模错误13。滤镜参数采用试错法。但这成为过滤器的额外负担。设计者和耗时的任务。为了解决这些问题,模糊逻辑可以是有前途的13。解决方案使用直观的基于经验的方法来解决难以数学建模的问题和难以正确调整的滤波器。本文考虑了13的组合;传统上认为模糊逻辑和卡尔曼滤波器是根本不同的。 The13;前者被认为是启发式的,后者被认为是统计过滤的。两种方案,例如卡尔曼滤波器13;将模糊卡尔曼滤波器和模糊卡尔曼滤波器应用于目标跟踪应用并评估其性能13;使用几个数值示例。该方法是相对新颖的。还要与其中之一进行比较;执行现有的自适应调整算法。使用某些错误13评估性能;基于标准。

著录项

  • 作者

    Kashyap SK; Raol JR;

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  • 年度 2005
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  • 原文格式 PDF
  • 正文语种 en
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