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A novel stochastic geometry framework is proposed in this paper to study thedownlink coverage performance in a millimeter wave (mmWave) cellular network byjointly considering the polar coordinates of the Base Stations (BSs) withrespect to the typical user located at the origin. Specifically, both theEuclidean and the angular distances of the BSs in a maximum power-basedassociation policy for the UE are considered to account for realistic beammanagement considerations, which have been largely ignored in the literature,especially in the cell association phase. For completeness, two otherassociation schemes are considered and exact-form expressions for the coverageprobability are derived. Subsequently, the key role of angular distances ishighlighted by defining the dominant interferer using angular distance-basedcriteria instead of Euclidean distance-based, and conducting a dominantinterferer-based coverage probability analysis. Among others, the numericalresults revealed that considering angular distance-based criteria fordetermining both the serving and the dominant interfering BS, can approximatethe coverage performance more accurately as compared to utilizing Euclideandistance-based criteria. To the best of the authors$'$ knowledge, this is thefirst work that rigorously explores the role of angular distances in theassociation policy and analysis of cellular networks.

Comprehensive Analysis of Maximum Power Association Policy for Cellular Networks Using Distance and Angular Coordinates