Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Many practical sensing applications involve multiple sensors simultaneously acquiring measurements of a single object. Conversely, most existing sparse recovery guarantees in compressed sensing concern only single-sensor acquisition scenarios. ,  address the optimal recovery of compressible signals from multi-sensor measurements using compressed sensing techniques. This confirms the benefits of multi-over single-sensor environments in the sense of reducing the number of measurements required per sensor, and therefore, depending on the application, the total time, por or cost. Throughout the paper  consider a broad class of sensing matrices, and two fundamentally different sampling scenarios (distinct and identical respectively), both of which are relevant to applications. For the case of diagonal sensor profile matrices (which characterize environmental conditions beten a source and the sensors), this paper presents two key improvements over existing results. First, a simpler optimal recovery guarantee for distinct sampling, and second, an improved recovery guarantee for identical sampling, based on the so-called sparsity in levels signal model.
['Il Yong Chun', 'Ben Adcock']
I am writing a research paper on a idea Optimal sparse recovery for multi-sensor measurements
[{"from": "human", "value": "I am writing a research paper on a idea Optimal sparse recovery for multi-sensor measurements"}, {"from": "gpt", "value": "Thats a unique idea.You should consider the following idea to enhance your idea so that it would impact uniquely: Many practical sensing applications involve multiple sensors simultaneously acquiring measurements of a single object. Conversely, most existing sparse recovery guarantees in compressed sensing concern only single-sensor acquisition scenarios. ,  address the optimal recovery of compressible signals from multi-sensor measurements using compressed sensing techniques. This confirms the benefits of multi-over single-sensor environments in the sense of reducing the number of measurements required per sensor, and therefore, depending on the application, the total time, por or cost. Throughout the paper  consider a broad class of sensing matrices, and two fundamentally different sampling scenarios (distinct and identical respectively), both of which are relevant to applications. For the case of diagonal sensor profile matrices (which characterize environmental conditions beten a source and the sensors), this paper presents two key improvements over existing results. First, a simpler optimal recovery guarantee for distinct sampling, and second, an improved recovery guarantee for identical sampling, based on the so-called sparsity in levels signal model."}]