LEO Mega-Constellation-Terrestrial Communications Suffering Poisson Arc Hardcore Distributed Space Interference

IF 10.7 1区 计算机科学 Q1 ENGINEERING, ELECTRICAL & ELECTRONIC IEEE Transactions on Wireless Communications Pub Date : 2025-01-09 DOI:10.1109/TWC.2024.3523950
Haoxing Zhang;Xiaqing Miao;Zihan Ni;Shuai Wang;Gaofeng Pan;Cicek Cavdar;Jianping An
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Abstract

Low Earth orbit (LEO) Mega-constellations have emerged as a transformative approach to realize enhanced system capacity and improved coverage to satisfy the ever-increasing global demand for data services. Subsequently, the high density of satellites in a confined orbital region poses challenges, including potential interference among neighboring satellites. Further, it is vital to adequately address the impacts of safety distances in satellite communication systems on ensuring proper operation, collision avoidance, and interference management. Inspired by these observations, this work proposes a novel analysis tool, the Poisson arc hardcore point process (PAHPP), by extending the traditional Poisson line hardcore point process to characterize the unique orbiting properties of the satellites in LEO mega-constellations, accounting for factors such as the orbit, the satellite density, and spatial distribution. Specifically, this paper presents the PAHPP by enforcing a minimum separation between satellites operating in the same circular orbit to reflect the practical LEO mega-constellations. The imposed minimum inter-satellite separation in the proposed PAHPP model has also been applied to multi-orbit multi-satellite communication cases. Moreover, the discretization approximation technique is employed to analyze system performance, focusing on serving distance and outage probability. Numerical results provide valuable insights and conclusions for uncovering and recognizing LEO mega-constellations.
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LEO大星座-地面通信遭受泊松弧硬核分布式空间干扰
低地球轨道(LEO)巨型星座已成为实现增强系统容量和改善覆盖范围以满足不断增长的全球数据服务需求的变革性方法。随后,卫星在有限轨道区域的高密度带来了挑战,包括相邻卫星之间的潜在干扰。此外,充分解决卫星通信系统安全距离对确保正常运行、避免碰撞和干扰管理的影响至关重要。受这些观测结果的启发,本文提出了一种新的分析工具——泊松弧核心点过程(PAHPP),通过扩展传统的泊松线核心点过程来表征LEO巨型星座中卫星的独特轨道特性,考虑到轨道、卫星密度和空间分布等因素。具体来说,本文通过在同一圆形轨道上运行的卫星之间施加最小距离来反映实际的LEO巨型星座,从而提出了PAHPP。所提出的PAHPP模型所要求的最小星间距离也适用于多轨道多卫星通信情况。此外,采用离散化逼近技术对系统性能进行分析,重点关注服务距离和中断概率。数值结果为揭示和识别狮子座巨星座提供了有价值的见解和结论。
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来源期刊
CiteScore
18.60
自引率
10.60%
发文量
708
审稿时长
5.6 months
期刊介绍: The IEEE Transactions on Wireless Communications is a prestigious publication that showcases cutting-edge advancements in wireless communications. It welcomes both theoretical and practical contributions in various areas. The scope of the Transactions encompasses a wide range of topics, including modulation and coding, detection and estimation, propagation and channel characterization, and diversity techniques. The journal also emphasizes the physical and link layer communication aspects of network architectures and protocols. The journal is open to papers on specific topics or non-traditional topics related to specific application areas. This includes simulation tools and methodologies, orthogonal frequency division multiplexing, MIMO systems, and wireless over optical technologies. Overall, the IEEE Transactions on Wireless Communications serves as a platform for high-quality manuscripts that push the boundaries of wireless communications and contribute to advancements in the field.
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