Multi-Object Tracking(MOT)is designed to accurately ascertain the positions and trajectories of moving objects within a video sequence.While prevalent methodologies primarily link detected objects across successive fr...Multi-Object Tracking(MOT)is designed to accurately ascertain the positions and trajectories of moving objects within a video sequence.While prevalent methodologies primarily link detected objects across successive frames by leveraging appearance and motion attributes,some approaches incorporate implicit global correlations from multiple antecedent frames to delineate target trajectories.Nonetheless,the capability to predict trajectories over multiple future frames remains insufficiently explored,leading to a significant underutilization of pertinent information in MOT.To address this gap,we introduce a transformer-based methodology,termed Preformer MOT,which enhances the precision of nonlinear trajectory predictions in dynamic settings.This enhancement is achieved through an innovative combination of a novel motion estimation technique-trajectory prediction-and Kalman filtering.Our method not only utilizes historical trajectory data but also anticipates the future positions of the target objects up to n subsequent steps,thereby furnishing a comprehensive prediction of trajectories with extensive temporal correlations.Specifically,we develop a straightforward self-supervised trajectory prediction model that estimates the future positions of a target object based on previously observed positional data.During the correlation phase,if a trajectory disruption occurs due to overlapping,occlusion,or nonlinear movements of the detected objects,Preformer MOT is capable of making early predictions using data from multiple forthcoming frames to reestablish trajectory continuity.Empirical evaluations on pedestrian datasets such as DanceTrack and MOT17 demonstrate that our approach surpasses other contemporary state-of-the-art methods.Furthermore,Preformer MOT exhibits exceptional performance in complex marine environments,underscoring its adaptability and efficacy.展开更多
基金supported by the National Natural Science Foun-dation of China under 6237326662421004+3 种基金62122046U24A2027962473243supported by the Shanghai Commission of Science and Technology,23010500100.
文摘Multi-Object Tracking(MOT)is designed to accurately ascertain the positions and trajectories of moving objects within a video sequence.While prevalent methodologies primarily link detected objects across successive frames by leveraging appearance and motion attributes,some approaches incorporate implicit global correlations from multiple antecedent frames to delineate target trajectories.Nonetheless,the capability to predict trajectories over multiple future frames remains insufficiently explored,leading to a significant underutilization of pertinent information in MOT.To address this gap,we introduce a transformer-based methodology,termed Preformer MOT,which enhances the precision of nonlinear trajectory predictions in dynamic settings.This enhancement is achieved through an innovative combination of a novel motion estimation technique-trajectory prediction-and Kalman filtering.Our method not only utilizes historical trajectory data but also anticipates the future positions of the target objects up to n subsequent steps,thereby furnishing a comprehensive prediction of trajectories with extensive temporal correlations.Specifically,we develop a straightforward self-supervised trajectory prediction model that estimates the future positions of a target object based on previously observed positional data.During the correlation phase,if a trajectory disruption occurs due to overlapping,occlusion,or nonlinear movements of the detected objects,Preformer MOT is capable of making early predictions using data from multiple forthcoming frames to reestablish trajectory continuity.Empirical evaluations on pedestrian datasets such as DanceTrack and MOT17 demonstrate that our approach surpasses other contemporary state-of-the-art methods.Furthermore,Preformer MOT exhibits exceptional performance in complex marine environments,underscoring its adaptability and efficacy.
