Coexistence analysis of impedance modulating transmitters

G. Hallak, G. Bumiller
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引用次数: 6

Abstract

Recently, standardization bodies such as IEEE and ITU addressed, independently, standards for the medium access control (MAC) and physical layer specification of PLCs. MAC designers develop coexistence mechanisms irrespectively of the physical layer. Power line channel behavior changes every time a modem sends/receives on the channel. Changing the channel behavior influences the communication between nodes. As a consequence, the MAC coexistence mechanisms are affected. Power line impedance is a very important parameter on the design of PLC architecture. The changed channel behavior is a result of changing the impedance values between sending and receiving states. Transmitter and receiver nodes behave simultaneously on the power line. Transmitter nodes transmit although other nodes receive at the same time. Changing states from the MAC layer simultaneously between send and receive for the different nodes influence the channel behavior, as a consequence, influence the physical layer and the coexistence between the different nodes even when the systems are separated in frequency. In this paper, we discuss the coexistence of the NB-PLC applications considering the communication requirements. We then investigate the impedance problem of the power line by providing a typical transmission scenario and simulation results on the CENELEC frequency bands. Finally, we introduce a transmission model which overcomes the impedance problem and optimizes the communications between the non-interoperable nodes.
阻抗调制发射机的共存分析
最近,IEEE和ITU等标准化机构独立制定了介质访问控制(MAC)和plc物理层规范的标准。MAC设计者开发了与物理层无关的共存机制。每次调制解调器在信道上发送/接收时,电力线信道行为都会发生变化。改变信道行为会影响节点之间的通信。因此,MAC共存机制受到影响。电力线阻抗是PLC结构设计中一个非常重要的参数。改变的通道行为是改变发送和接收状态之间的阻抗值的结果。发射机和接收机节点在电力线上同时工作。发送节点发送,尽管其他节点同时接收。在不同节点的发送和接收之间同时改变MAC层的状态会影响信道行为,因此,即使系统在频率上分离,也会影响物理层和不同节点之间的共存。本文从通信需求出发,讨论了NB-PLC应用共存的问题。然后,我们通过提供一个典型的传输场景和在CENELEC频段上的仿真结果来研究电力线的阻抗问题。最后,我们引入了一种传输模型,克服了阻抗问题,优化了非互操作节点之间的通信。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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