采用NOMA的基于多层星座的Is-OWC

Wataru Tachikawa, Ajgaonkar Swarali Ashish, Kazutoshi Yoshii, Jiang Liu, S. Shimamoto
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引用次数: 2

摘要

星间光无线通信(is - owc)具有吞吐量大、传输功率低、抗干扰能力强等优点,被认为是卫星通信的最佳选择。为了提高is - owc的可用性,需要实现一种低延迟和处理更多流量的通信方案。在本文中,我们提出了一种新的Is-OWC系统,该系统采用多层卫星星座,采用上行链路非正交多址(NOMA)来实现延迟抑制和提高吞吐量。在我们提出的方案中,为了在每个卫星上分配数据包并减少队列延迟,每个通信路径都适应于地面发射机和接收机之间的距离。仿真结果验证了该模型的性能优于传统的OMA模型。结果表明,通过引入原始算法,优化各卫星的发射功率和分配的子频带,提高了模型的误码率。结果表明,采用低轨卫星和中低轨卫星的模型与仅采用低轨卫星的传统模型的时延对比表明,该模型实现了时延抑制。随着整个网络中会话数量的增加,这两种模型之间的差异变得更加显著。
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Multi-layer Constellation based Is-OWC employing NOMA
Inter-Satellite Optical Wireless Communication (Is-OWC) is regarded as the best choice for satellite communication because of its large throughput, low transmission power and high immunity to interference. To increase the availability of Is-OWC, it is required to implement a communication scheme that realizes lower latency and handles more traffic. In this paper, we propose a new Is-OWC system that uses multi-layer satellite constellation that applies uplink Non-Orthogonal Multiple Access (NOMA) to achieve delay suppression and increased throughput. In our proposed scheme, to distribute packets and reduce queue delay in each satellite, each communication path is adapted to the distance between the terrestrial transmitter and receiver. Simulation results validate the performance of our NOMA model is better than that of the conventional OMA model. Furthermore, the results showed that the BER of our model is improved by introducing the original algorithm to optimize the transmission power and the allocated sub-band of each satellite for the NOMA transmission. As a result, comparison of the latency between the proposed model using LEO and MEO satellites and the conventional model using only LEO satellites, the proposed model realizes delay suppression. The difference between the two models becomes more significant as the number of sessions in the entire network increases.
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