Abstract
One of the main challenges of detection and tracking of objects in video monitoring is the lighting conditions of the scene under surveillance and its variations. Due to the availability of various visible cameras and beyond visible spectrum sensors at low costs, a solution for this challenge is the fusion of different sensors data, especially visible and thermal sensors. However, the main problem is, proposing an efficient fusion of various sensors and determining the reliability of their data to make the most use of the sensor’s information. For this purpose, this paper presents a multispectral particle filter tracking based on an adaptive fusion of visible and thermal data. In the proposed fusion method, a confidence measure is assigned to each sensor’s data. To evaluate the confidence of the sensor’s data in each frame, in the proposed method, two criteria consisting of local mean luminance in the visible spectrum and local contrast in the thermal spectrum are calculated. These criteria are then employed to determine the confidence of each sensor using a fuzzy inference system (FIS). Also, a second confidence measure for the visible spectrum is defined based on the variation of local mean luminance in successive frames. The total confidence of visible and thermal spectrum is then employed for the adaptive fusion of data for particle filter tracking. The proposed method was evaluated quantitatively and qualitatively through several simulations performed on the thermal and visible benchmark video sequences, which include variable and low light conditions. The results were promising to improve the tracking in challenging scenes and demonstrated the effectiveness of the proposed fusion algorithm.
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Pourmomtaz, N., Nahvi, M. Multispectral particle filter tracking using adaptive decision-based fusion of visible and thermal sequences. Multimed Tools Appl 79, 18405–18434 (2020). https://doi.org/10.1007/s11042-020-08640-z
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DOI: https://doi.org/10.1007/s11042-020-08640-z