Latent Constrained Correlation Filter
Baochang Zhang, Shangzhen Luan, Chen Chen, Jungong Han and, Wei Wang, Alessandro Perina, Ling Shao

TL;DR
This paper introduces Latent Constrained Correlation Filters (LCCF), a novel method that incorporates a latent subspace and distribution constraints to improve shift-invariant object recognition, demonstrating superior performance across multiple tasks.
Contribution
The paper proposes a new learning framework for correlation filters using a latent subspace and distribution constraints, solved via SADMM, enhancing robustness and accuracy.
Findings
LCCF outperforms state-of-the-art methods in eye localization, car detection, and object tracking.
The proposed SADMM algorithm converges reliably at the saddle point.
Extensive experiments validate the effectiveness of LCCF across diverse applications.
Abstract
Correlation filters are special classifiers designed for shift-invariant object recognition, which are robust to pattern distortions. The recent literature shows that combining a set of sub-filters trained based on a single or a small group of images obtains the best performance. The idea is equivalent to estimating variable distribution based on the data sampling (bagging), which can be interpreted as finding solutions (variable distribution approximation) directly from sampled data space. However, this methodology fails to account for the variations existed in the data. In this paper, we introduce an intermediate step -- solution sampling -- after the data sampling step to form a subspace, in which an optimal solution can be estimated. More specifically, we propose a new method, named latent constrained correlation filters (LCCF), by mapping the correlation filters to a given latent…
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