Distributed Recursive Filtering for Spatially Interconnected Systems with Randomly Occurred Missing Measurements
Bai Li

TL;DR
This paper introduces a distributed recursive filtering method for spatially interconnected systems that effectively handles missing sensor measurements with known probabilities, ensuring accurate state estimation despite sensor failures.
Contribution
It proposes a novel distributed filtering approach for SISs that accounts for randomly missing measurements, enhancing robustness in sensor network applications.
Findings
Filtering method accurately estimates states with missing data
Experimental results validate effectiveness under sensor failure scenarios
Approach maintains performance with probabilistic measurement losses
Abstract
This paper proposed a distributed filter for spatially interconnected systems (SISs), which considers missing measurements in the sensors of sub-systems. An SIS is established by many similar sub-systems that directly interact or communicate with connective neighbors. Despite that the interactions are simple and tractable, the overall SIS can perform rich and complex behaviors. In actual projects, sensors of sub-systems in a sensor network may break down sometimes, which causes parts of the measurements unavailable unexpectedly. In this work, distributed characteristics of SISs are described by Andrea model and the losses of measurements are assumed to occur with known probabilities. Experimental results confirm that, this filtering method can be effectively employed for the state estimation of SISs, when missing measurements occur.
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Taxonomy
TopicsTarget Tracking and Data Fusion in Sensor Networks · Energy Efficient Wireless Sensor Networks · Distributed Control Multi-Agent Systems
