Detecting Separation in Robotic and Sensor Networks
Chenda Liao, Harshavardhan Chenji, Prabir Barooah, Radu Stoleru,, Tam\'as Kalm\'ar-Nagy

TL;DR
This paper introduces a distributed algorithm for detecting agent separation from a base station in robotic and sensor networks, effective even with high mobility and network changes, demonstrated through simulations and real experiments.
Contribution
It presents a novel averaging-based distributed method for separation detection that works in dynamic, mobile networks, unlike traditional route-based approaches.
Findings
Algorithm reliably detects separation in static and mobile networks.
Expected node state converges to positive if connected, zero if disconnected.
Validated through simulations and real-world experiments.
Abstract
In this paper we consider the problem of monitoring detecting separation of agents from a base station in robotic and sensor networks. Such separation can be caused by mobility and/or failure of the agents. While separation/cut detection may be performed by passing messages between a node and the base in static networks, such a solution is impractical for networks with high mobility, since routes are constantly changing. We propose a distributed algorithm to detect separation from the base station. The algorithm consists of an averaging scheme in which every node updates a scalar state by communicating with its current neighbors. We prove that if a node is permanently disconnected from the base station, its state converges to . If a node is connected to the base station in an average sense, even if not connected in any instant, then we show that the expected value of its state…
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Taxonomy
TopicsDNA and Biological Computing · Limits and Structures in Graph Theory · Diffusion and Search Dynamics
