Generalising Cost-Optimal Particle Filtering
Andrew Warrington, Neil Dhir

TL;DR
This paper introduces a generalized framework for cost-optimal sensor scheduling in dynamic systems, balancing resource use and estimation accuracy through active observation decisions.
Contribution
It formalizes a flexible model for sensor scheduling that minimizes costs while maximizing state estimation quality, extending prior methods.
Findings
Formalization of a general sensor scheduling problem
Solution to two example scheduling problems
Discussion of future research directions
Abstract
We present an instance of the optimal sensor scheduling problem with the additional relaxation that our observer makes active choices whether or not to observe and how to observe. We mask the nodes in a directed acyclic graph of the model that are observable, effectively optimising whether or not an observation should be made at each time step. The reason for this is simple: it is prudent to seek to reduce sensor costs, since resources (e.g. hardware, personnel and time) are finite. Consequently, rather than treating our plant as if it had infinite sensing resources, we seek to jointly maximise the utility of each perception. This reduces resource expenditure by explicitly minimising an observation-associated cost (e.g. battery use) while also facilitating the potential to yield better state estimates by virtue of being able to use more perceptions in noisy or unpredictable regions of…
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Taxonomy
TopicsDistributed Sensor Networks and Detection Algorithms · Target Tracking and Data Fusion in Sensor Networks · Energy Efficient Wireless Sensor Networks
