Coexisting Success Probability and Throughput of Multi-RAT Wireless Networks with Unlicensed Band Access
Xu Ding, Chun-Hung Liu, Li-Chun Wang, Xiaohui Zhao

TL;DR
This paper analyzes the success probability and throughput in multi-RAT wireless networks with unlicensed band access, deriving closed-form expressions and optimizing deployment densities for improved coexistence performance.
Contribution
It introduces a closed-form analysis of coexisting success probability and finds optimal deployment densities for multiple RATs in unlicensed bands.
Findings
Coexisting success probability has a concave relationship with the number of channels.
Optimal deployment densities exist and can be computed.
Coexisting throughput exceeds WiFi-only throughput significantly.
Abstract
In this letter, the coexisting success probability and throughput of a wireless network consisting of multiple subnetworks of different radio access technologies (RATs) is investigated. The coexisting success probability that is defined as the average of all success probabilities of all subnetworks is found in closed-form and it will be shown to have the concavity over the number of channels in the unlicensed band. The optimal deployment densities of all different RATs access points (APs) that maximize the coexisting success probability are shown to exist and can be found under the derived constraint on network parameters. The coexisting throughput is defined as the per-channel sum of all spectrum efficiencies of all subnetworks and numerical results show that it is significantly higher than the throughput of the unlicensed band only accessed by WiFi APs.
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Taxonomy
TopicsAdvanced MIMO Systems Optimization · Wireless Networks and Protocols · Cooperative Communication and Network Coding
