Exact Dynamic Support Tracking with Multiple Measurement Vectors using Compressive MUSIC
Jong Min Kim, Ok Kyun Lee, Jong Chul Ye

TL;DR
This paper introduces a deterministic method for tracking dynamic sparse targets using multiple measurement vectors, leveraging multi-sensor diversity and a novel CS-MUSIC algorithm to improve support estimation accuracy.
Contribution
It presents a new deterministic support tracking approach with MMV that enhances support estimation by removing inaccuracies and adding new supports using an optimized CS-MUSIC algorithm.
Findings
Supports deterministic tracking with multiple sensors.
Improves support estimation accuracy over probabilistic methods.
Numerical results validate the proposed approach.
Abstract
Dynamic tracking of sparse targets has been one of the important topics in array signal processing. Recently, compressed sensing (CS) approaches have been extensively investigated as a new tool for this problem using partial support information obtained by exploiting temporal redundancy. However, most of these approaches are formulated under single measurement vector compressed sensing (SMV-CS) framework, where the performance guarantees are only in a probabilistic manner. The main contribution of this paper is to allow \textit{deterministic} tracking of time varying supports with multiple measurement vectors (MMV) by exploiting multi-sensor diversity. In particular, we show that a novel compressive MUSIC (CS-MUSIC) algorithm with optimized partial support selection not only allows removal of inaccurate portion of previous support estimation but also enables addition of newly emerged…
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Taxonomy
TopicsIndoor and Outdoor Localization Technologies · Sparse and Compressive Sensing Techniques · Direction-of-Arrival Estimation Techniques
