Multiple Infrared Small Targets Detection based on Hierarchical Maximal Entropy Random Walk
Chaoqun Xia, Xiaorun Li, Liaoying Zhao, Shuhan Chen

TL;DR
This paper introduces a hierarchical maximal entropy random walk method for detecting multiple small infrared targets, improving robustness against clutter and interference, and outperforming existing techniques in practical scenarios.
Contribution
The paper develops a hierarchical MERW approach with a tailored weight matrix for robust multiple small target detection in infrared images, addressing bias and interference issues.
Findings
Superior detection performance over state-of-the-art methods
Enhanced target and background discrimination
Effective detection of multiple small targets
Abstract
The technique of detecting multiple dim and small targets with low signal-to-clutter ratios (SCR) is very important for infrared search and tracking systems. In this paper, we establish a detection method derived from maximal entropy random walk (MERW) to robustly detect multiple small targets. Initially, we introduce the primal MERW and analyze the feasibility of applying it to small target detection. However, the original weight matrix of the MERW is sensitive to interferences. Therefore, a specific weight matrix is designed for the MERW in principle of enhancing characteristics of small targets and suppressing strong clutters. Moreover, the primal MERW has a critical limitation of strong bias to the most salient small target. To achieve multiple small targets detection, we develop a hierarchical version of the MERW method. Based on the hierarchical MERW (HMERW), we propose a small…
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Taxonomy
TopicsInfrared Target Detection Methodologies · Advanced Measurement and Detection Methods · Thermography and Photoacoustic Techniques
