Intracell Interference Characterization and Cluster Inference for D2D Communication
Hafiz Attaul Mustafa, Muhammad Zeeshan Shakir, Ali Riza Ekti, Muhammad, Ali Imran, and Rahim Tafazolli

TL;DR
This paper models spatial correlations in D2D communication using advanced stochastic processes, deriving new analytical tools to analyze interference and coverage in correlated spatial networks.
Contribution
It introduces a novel approach using Permanental Cox Processes and Euler Characteristic to better capture spatial correlations and interference effects in D2D networks.
Findings
Good agreement between CFA and empirical results.
Spatial correlation significantly affects interference and coverage.
Proposed methods effectively model clustered D2D nodes.
Abstract
The homogeneous poisson point process (PPP) is widely used to model temporal, spatial or both topologies of base stations (BSs) and mobile terminals (MTs). However, negative spatial correlation in BSs, due to strategical deployments, and positive spatial correlations in MTs, due to homophilic relations, cannot be captured by homogeneous spatial PPP (SPPP). In this paper, we assume doubly stochastic poisson process, a generalization of homogeneous PPP, with intensity measure as another stochastic process. To this end, we assume Permanental Cox Process (PCP) to capture positive spatial correlation in MTs. We consider product density to derive closed-form approximation (CFA) of spatial summary statistics. We propose Euler Characteristic (EC) based novel approach to approximate intractable random intensity measure and subsequently derive nearest neighbor distribution function. We further…
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Taxonomy
TopicsPoint processes and geometric inequalities · Spatial and Panel Data Analysis · Random Matrices and Applications
