Robust and Fast Collaborative Tracking with Two Stage Sparse Optimization Authors: Baiyang Liu, Lin Yang, Junzhou Huang, Peter Meer, Leiguang Gong and.

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Presentation transcript:

Robust and Fast Collaborative Tracking with Two Stage Sparse Optimization Authors: Baiyang Liu, Lin Yang, Junzhou Huang, Peter Meer, Leiguang Gong and Casimir Kulikowski

Outline Problem of Tracking State of the art algorithms The proposed algorithm Experiment result

The problem Tracking: estimate the state of moving target in the observed video sequences Challenges Illumination, pose of target changes Object occlusion, complex background clutters Landmark ambiguity Two categories of tracking Discriminative Generative

Outline Problem of Tracking State of the art algorithms The proposed algorithm Experiment result

Related work Multiple Instance Learning boosting method(MIL Boosting) put all samples into bags and labeled them with bag labels. Incremental Visual Tracking(IVT) the target is represented as a single online learned appearance model L1 norm optimization a linear combination of the learned template set composed of both target templates and the trivial template.

Basic sparse representation Basis pursuit Disadvantages Computationally expensive Temporal and spatial features are not considered The background pixels do not lie on the linear template subspace

Outline Problem of Tracking State of the art algorithms The proposed algorithm Experiment result

Problem Analysis Given ,Let , , Feature space can be decreased to K0 dimension Two stage greedy method

Stage I: Feature selection Loss function Given , L= as labels, To minimize the loss function, solve the sparse problem below Feature selection matrix

Stage II: Sparse reconstruction Problem after stage I Simplify the aim function above as

Bayesian tracking framework Let represents the affine paramters Estimation of the state probability prediction: updating: Transition model: ~ likelihood where

Review of the algorithm

Outline Problem of Tracking State of the art algorithms The proposed algorithm Experiment result

Visual results

Quantitative results