On the Doubly Sparse Compressed Sensing Problem
Grigory Kabatiansky, Cedric Tavernier, Serge Vladuts

TL;DR
This paper introduces a new variant of compressed sensing that tolerates a bounded number of corrupted measurements, providing theoretical bounds, a recovery algorithm, and demonstrating the optimality of measurement matrices.
Contribution
It proposes a novel sparse sensing problem with bounded errors, offers a simple recovery algorithm, and establishes optimal measurement bounds analogous to coding theory.
Findings
Recovery with 2(t+l) measurements is sufficient.
A simple recovery algorithm is proposed.
Measurement matrices are proven optimal via an analog of the Singleton bound.
Abstract
A new variant of the Compressed Sensing problem is investigated when the number of measurements corrupted by errors is upper bounded by some value l but there are no more restrictions on errors. We prove that in this case it is enough to make 2(t+l) measurements, where t is the sparsity of original data. Moreover for this case a rather simple recovery algorithm is proposed. An analog of the Singleton bound from coding theory is derived what proves optimality of the corresponding measurement matrices.
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Taxonomy
TopicsSparse and Compressive Sensing Techniques · Distributed Sensor Networks and Detection Algorithms · Direction-of-Arrival Estimation Techniques
