基于lamarkian遗传的粒子滤波检测前跟踪算法改进了弱小目标跟踪

Lin Li, Yun Li
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引用次数: 4

摘要

粒子滤波检测前跟踪(PF-TBD)算法在检测和跟踪弱小目标方面是对检测后跟踪算法的改进。然而,该方法存在粒子坍缩问题,导致检测和跟踪性能下降。针对这一问题,本文提出了一种拉马克粒子滤波检测前跟踪(LPF-TBD)算法。在LPF-TBD中,在TBD重采样过程之前,采用了基于lamarkian覆盖和精英算子的粒子更新策略,旨在提高粒子多样性和效率。通过对图像序列中低信噪比目标的实验,验证了LPF-TBD算法的有效性。与目前流行的多项重采样PF-TBD方法相比,LPF-TBD中的后验分布可以被粒子更充分地逼近。实验结果表明,LPF-TBD在增强粒子滤波和进化算法效率的同时,具有较高的检测和跟踪性能。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Particle filter track-before-detect algorithm with Lamarckian inheritance for improved dim target tracking
Particle filter track-before-detect (PF-TBD) algorithms offer improvements over track-after-detect algorithms in detecting and tracking dim targets. However, it suffers from the particle collapsing problem, which can lead to deteriorated detection and tracking performance. To address this issue, a Lamarckian particle filter track-before-detect (LPF-TBD) algorithm is developed in this paper. In the LPF-TBD, before a TBD resampling process, a particle update strategy is applied, which is based on Lamarckian overriding and elitist operators designed to improve the particle diversity and efficiency. The effectiveness of the LPF-TBD algorithm is demonstrated using a widely adopted experiment on a target with a low signal-to-noise ratio in an image sequence. Compared with the currently-popular multinomial resampling PF-TBD method, the posterior distribution in the LPF-TBD can be more sufficiently approximated by the particles. Test results show that the LPF-TBD offers higher detection and tracking performance, while strengthening the algorithmic efficiency of particle filtering and evolutionary algorithms.
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