A Complete Derivation Of The Association Log-Likelihood Distance For Multi-Object Tracking
Richard Altendorfer, Sebastian Wirkert

TL;DR
This paper derives and analyzes the association log-likelihood distance for multi-object tracking, demonstrating through simulations that it outperforms the Mahalanobis distance in correct data association.
Contribution
It provides a complete derivation of the association log-likelihood distance and compares its effectiveness to the Mahalanobis distance in multi-object tracking.
Findings
Association log-likelihood distance performs better than Mahalanobis distance in simulations.
Maximizing global association hypotheses is more fundamental than minimizing a statistical distance.
The derivation clarifies the theoretical basis for association measures in tracking.
Abstract
The Mahalanobis distance is commonly used in multi-object trackers for measurement-to-track association. Starting with the original definition of the Mahalanobis distance we review its use in association. Given that there is no principle in multi-object tracking that sets the Mahalanobis distance apart as a distinguished statistical distance we revisit the global association hypotheses of multiple hypothesis tracking as the most general association setting. Those association hypotheses induce a distance-like quantity for assignment which we refer to as association log-likelihood distance. We compare the ability of the Mahalanobis distance to the association log-likelihood distance to yield correct association relations in Monte-Carlo simulations. It turns out that on average the distance based on association log-likelihood performs better than the Mahalanobis distance, confirming that…
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Taxonomy
TopicsTarget Tracking and Data Fusion in Sensor Networks · Advanced Statistical Methods and Models · Time Series Analysis and Forecasting
