Optimized Asynchronous Passive Multi-Channel Discovery of Beacon-Enabled Networks
Niels Karowski, Konstantin Miller

TL;DR
This paper introduces new low-complexity and ILP-based algorithms for passive multi-channel neighbor discovery that optimize discovery time metrics across various beacon interval sets, including those used in IEEE standards.
Contribution
It presents novel algorithms that optimize discovery performance for a broad range of BI sets, including IEEE 802.15.4 and IEEE 802.11, with proven optimality and extensive numerical evaluation.
Findings
Algorithms significantly reduce expected discovery time.
Proposed methods outperform standard IEEE passive scanning.
Effective across diverse wireless technologies and BI configurations.
Abstract
Neighbor discovery is a fundamental task for wireless networks deployment. It is essential for setup and maintenance of networks and is typically a precondition for further communication. In this work we focus on passive discovery of networks operating in multi-channel environments, performed by listening for periodically transmitted beaconing messages. It is well-known that performance of such discovery approaches strongly depends on the structure of the adopted Beacon Interval (BI) set, that is, set of intervals between individual beaconing messages. However, although imposing constraints on this set has the potential to make the discovery process more efficient, there is demand for high-performance discovery strategies for BI sets that are as general as possible. They would allow to cover a broad range of wireless technologies and deployment scenarios, and enable network operators to…
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Taxonomy
TopicsEnergy Efficient Wireless Sensor Networks · Mobile Ad Hoc Networks · Wireless Networks and Protocols
