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Main Authors: Seyfi, Tolunay, Khadem, Erfan, Afghah, Fatemeh
Format: Preprint
Published: 2026
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Online Access:https://arxiv.org/abs/2604.19978
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author Seyfi, Tolunay
Khadem, Erfan
Afghah, Fatemeh
author_facet Seyfi, Tolunay
Khadem, Erfan
Afghah, Fatemeh
contents We propose \emph{PRISM} (\textbf{Pseudorandom Residue-based Indexed Scheduling Method}), a deterministic topology-discovery framework for single-hop wireless networks with bounded interference. Each receiver has at most \(L\) interfering transmitters among \(K\) transmitters and identifies them through singleton transmissions. PRISM assigns finite-field labels to transmitters and schedules transmissions via modular multiplication and a second prime modulus. It achieves full discovery in \(O(L(1+δ)\log K)\) rounds in expectation with failure probability \(K^{-δ}\), and in \(O(L^2\log K)\) rounds deterministically. Simulations show \(\approx 0.9L\log K\) scaling, with \(q/L\approx1.2\) minimizing mean completion time and \(q/L\approx1.4\text{--}1.6\) improving tail performance.
format Preprint
id arxiv_https___arxiv_org_abs_2604_19978
institution arXiv
publishDate 2026
record_format arxiv
spellingShingle On the Optimality of Network Topology Discovery in Single-Hop Bounded-Interference Networks
Seyfi, Tolunay
Khadem, Erfan
Afghah, Fatemeh
Networking and Internet Architecture
We propose \emph{PRISM} (\textbf{Pseudorandom Residue-based Indexed Scheduling Method}), a deterministic topology-discovery framework for single-hop wireless networks with bounded interference. Each receiver has at most \(L\) interfering transmitters among \(K\) transmitters and identifies them through singleton transmissions. PRISM assigns finite-field labels to transmitters and schedules transmissions via modular multiplication and a second prime modulus. It achieves full discovery in \(O(L(1+δ)\log K)\) rounds in expectation with failure probability \(K^{-δ}\), and in \(O(L^2\log K)\) rounds deterministically. Simulations show \(\approx 0.9L\log K\) scaling, with \(q/L\approx1.2\) minimizing mean completion time and \(q/L\approx1.4\text{--}1.6\) improving tail performance.
title On the Optimality of Network Topology Discovery in Single-Hop Bounded-Interference Networks
topic Networking and Internet Architecture
url https://arxiv.org/abs/2604.19978