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arXiv:2611.15824 · v1

Rule-Sensitive Sensor Participation in Distributed Detection with Prescribed Boolean Fusion Rules

首次提交 2026-11-12 02:39
版本更新 2026-11-12 02:39
雷达观测 2026-11-13 14:16
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摘要

We study distributed binary detection when the fusion node must implement a prescribed Boolean decision rule. Under conditionally independent Bernoulli observations, we derive a signed-influence path identity valid for arbitrary Boolean rules; for monotone rules, it reduces to an exact Russo--Margulis representation in terms of coordinate influences. The identity yields rule-sensitive necessary conditions for a target Bayes error and an influence-weighted Kullback--Leibler feasibility bound. We then connect Boolean relevance to exact rule implementation and derive lower bounds on the number of sensors that must participate, including a heterogeneous bound based on the ordered per-sensor hypothesis separations. Numerical and Monte Carlo results illustrate both the tightening provided by the heterogeneous participation bound and the performance penalty that can arise when a prescribed fusion rule is retained instead of optimal likelihood-ratio fusion.

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v1 · 2026-11-12 02:39 · 最新观测版本

Rule-Sensitive Sensor Participation in Distributed Detection with Prescribed Boolean Fusion Rules

We study distributed binary detection when the fusion node must implement a prescribed Boolean decision rule. Under conditionally independent Bernoulli observations, we derive a signed-influence path identity valid for arbitrary Boolean rules; for monotone rules, it reduces to an exact Russo--Margulis representation in terms of coordinate influences. The identity yields rule-sensitive necessary conditions for a target Bayes error and an influence-weighted Kullback--Leibler feasibility bound. We then connect Boolean relevance to exact rule implementation and derive lower bounds on the number of sensors that must participate, including a heterogeneous bound based on the ordered per-sensor hypothesis separations. Numerical and Monte Carlo results illustrate both the tightening provided by the heterogeneous participation bound and the performance penalty that can arise when a prescribed fusion rule is retained instead of optimal likelihood-ratio fusion.

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