Y. Masuda, H. Shinoda, A. Noda
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摘要

本文提出了一种在二维通信(2DC)环境中确定物理层(PHY)参数以使每比特能量率(EBR)最小化的方法。EBR是用于1位传输/接收的功耗。2DC使用片状波导介质,引导微波沿着片状波导。在我们之前的工作中,已经报道了利用TransferJet器件在2DC环境下实现高能效数据传输的可能性。据报道,最大传输速率为71.1 Mbps,功耗为118 mW。在功耗相同的情况下,EBR比ZigBee低两个数量级。然而,根据2DC信道的延迟扩展,数据速率在某些收发器位置显著降低。传输速率的降低是由于通信系统的物理层参数与通信环境的特性不匹配造成的。本文提出了一种最小化EBR的最佳物理量参数的确定方法。实验结果证明了在2DC环境下节能数据传输的可行性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Physical Layer Design of Energy-Efficient Data Transmission in 2D Communication Environments
This paper proposes a method to determine a physical layer (PHY) parameter that minimizes energy-per-bit rate (EBR) in a two-dimensional communication (2DC) environment. EBR is the power consumption used for 1- bit transmission/reception. 2DC uses a sheet-like waveguide medium, which guides the micro-wave along the sheet. In our previous work, the possibility of energy- efficient data transmission by using TransferJet devices in 2DC environment was reported. The reported maximum transmission rate was 71.1 Mbps with a power consumption of 118 mW. The EBR was two orders of magnitude lower than that of ZigBee despite the same power consumption. However, the data rate significantly degraded at some transceiver positions depending on the delay spread of the 2DC channel. The decrease of the transmission rate was caused by a mismatch between the PHY parameter of the communication system and the characteristics of the communication environment. This pa-per presents a method to determine an optimum PHY parameter for minimizing EBR. The experimental results demonstrate the feasibility of the energy-efficient data transmission in 2DC environments.
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