Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking

Multi-target tracking is widely applied in video surveillance systems. As we know, although the standard particle cardinalized probability hypothesis density filter can estimate state of targets, it is difficult to define the proposal distribution function in prediction stage. Since the robust parti...

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Main Authors: Bo Li, Huawei Yi, Xiaohui Li
Format: Article
Language:English
Published: SAGE Publishing 2019-11-01
Series:Measurement + Control
Online Access:https://doi.org/10.1177/0020294019877494
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spelling doaj-05a4a967754d41f5af798de3ce0f4d212020-11-25T03:49:55ZengSAGE PublishingMeasurement + Control0020-29402019-11-015210.1177/0020294019877494Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target trackingBo LiHuawei YiXiaohui LiMulti-target tracking is widely applied in video surveillance systems. As we know, although the standard particle cardinalized probability hypothesis density filter can estimate state of targets, it is difficult to define the proposal distribution function in prediction stage. Since the robust particles cannot be effectively drawn, the actual tracking accuracy should be enhanced. In this paper, an innovative unscented transform–based particle cardinalized probability hypothesis density filter is derived. Considering the different state spaces, we use the auxiliary particle method and then draw robust particles from the modified distributions in order to estimate the position of targets. Simultaneously, we present the recursion of the optimized Kalman gain to improve the general unscented transform for the velocity estimates. Using the track label, we further integrate them in the framework of the jump Markov model. The simulation results show that the proposed filter has advances in the multi-target tracking scenes. Moreover, the experiments indicate that the filter can track mobile targets with satisfactory results.https://doi.org/10.1177/0020294019877494
collection DOAJ
language English
format Article
sources DOAJ
author Bo Li
Huawei Yi
Xiaohui Li
spellingShingle Bo Li
Huawei Yi
Xiaohui Li
Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking
Measurement + Control
author_facet Bo Li
Huawei Yi
Xiaohui Li
author_sort Bo Li
title Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking
title_short Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking
title_full Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking
title_fullStr Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking
title_full_unstemmed Innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking
title_sort innovative unscented transform–based particle cardinalized probability hypothesis density filter for multi-target tracking
publisher SAGE Publishing
series Measurement + Control
issn 0020-2940
publishDate 2019-11-01
description Multi-target tracking is widely applied in video surveillance systems. As we know, although the standard particle cardinalized probability hypothesis density filter can estimate state of targets, it is difficult to define the proposal distribution function in prediction stage. Since the robust particles cannot be effectively drawn, the actual tracking accuracy should be enhanced. In this paper, an innovative unscented transform–based particle cardinalized probability hypothesis density filter is derived. Considering the different state spaces, we use the auxiliary particle method and then draw robust particles from the modified distributions in order to estimate the position of targets. Simultaneously, we present the recursion of the optimized Kalman gain to improve the general unscented transform for the velocity estimates. Using the track label, we further integrate them in the framework of the jump Markov model. The simulation results show that the proposed filter has advances in the multi-target tracking scenes. Moreover, the experiments indicate that the filter can track mobile targets with satisfactory results.
url https://doi.org/10.1177/0020294019877494
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AT huaweiyi innovativeunscentedtransformbasedparticlecardinalizedprobabilityhypothesisdensityfilterformultitargettracking
AT xiaohuili innovativeunscentedtransformbasedparticlecardinalizedprobabilityhypothesisdensityfilterformultitargettracking
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