A Kalman filter‐Hungarian algorithm with a postprocessor for tracking aeolian saltating particle in high‐speed video

Abstract Saltating particle tracking (SPT) is an essential visualized channel to understand the dynamics of aeolian saltation at sand particle size scale, while the published SPTs could have low recall or accuracy rate and misestimate further saltation intensity. Hence, a Kalman filter‐Hungarian algorithm with a postprocessor (KF‐H‐ k ) was proposed, where the Kalman filter was employed for predicting particle motion, and the Hungarian algorithm for optimizing global assignment, as well as the postprocessor with k ‐means cluster for correcting the erroneous recovered tracks by Kalman filter‐Hungarian algorithm. The new SPT was validated in a digital high‐speed video with various particle concentrations from a wind tunnel experiment. It demonstrated that compared with the previous SPTs, KF‐H‐ k kept the highest and most stable accuracy (85% ~ 93%), the best spatial resolution, the moderate recall rate (50% ~ 70%) and time cost. The present work offers a new hybrid scheme for tracking sand particles accurately but alsodatasets for automatically identifying saltating tracks via machine learning models, very critical for insight into new hypothesis on sand ripple formation.

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Publication Details

Journal
Earth Surface Processes and Landforms
Published
2024-11-04
DOI
https://doi.org/10.1002/esp.6014
Citations
4
Primary Topic
Aeolian processes and effects
Type
article
Field-Weighted Citation Impact
2.06

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article

A Kalman filter‐Hungarian algorithm with a postprocessor for tracking aeolian saltating particle in high‐speed video

Hongji Zhou, Fanmin Mei, Jinguang Chen, Jin Su
4 citations
Earth Surface Processes and Landforms
Aeolian processes and effects
2.06
article

A Kalman filter‐Hungarian algorithm with a postprocessor for tracking aeolian saltating particle in high‐speed video

Hongji Zhou, Fanmin Mei, Jinguang Chen, Jin Su
article en
4 citations

Abstract

Abstract Saltating particle tracking (SPT) is an essential visualized channel to understand the dynamics of aeolian saltation at sand particle size scale, while the published SPTs could have low recall or accuracy rate and misestimate further saltation intensity. Hence, a Kalman filter‐Hungarian algorithm with a postprocessor (KF‐H‐ k ) was proposed, where the Kalman filter was employed for predicting particle motion, and the Hungarian algorithm for optimizing global assignment, as well as the postprocessor with k ‐means cluster for correcting the erroneous recovered tracks by Kalman filter‐Hungarian algorithm. The new SPT was validated in a digital high‐speed video with various particle concentrations from a wind tunnel experiment. It demonstrated that compared with the previous SPTs, KF‐H‐ k kept the highest and most stable accuracy (85% ~ 93%), the best spatial resolution, the moderate recall rate (50% ~ 70%) and time cost. The present work offers a new hybrid scheme for tracking sand particles accurately but alsodatasets for automatically identifying saltating tracks via machine learning models, very critical for insight into new hypothesis on sand ripple formation.

Earth Surface Processes and LandformsVol. 49(15)
Xi'an Polytechnic University (CN)
National Natural Science Foundation of China
Affordable and clean energy
Openalex Percentile: Top 14%
Aeolian processes and effects
2.06
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A Kalman filter‐Hungarian algorithm with a postprocessor for tracking aeolian saltating particle in high‐speed video — Hongji Zhou, Fanmin Mei, et al. · Earth Surface Processes and Landforms (2024) | TGRS Research Map | TGRS