Design, Analysis and Implementation of Ultrahigh Data Rate Uwb Six-Port Receiver Up to 7 GBPS for 5 G New Spectrum Radio Access and Car

Abstract

Abstract-Every generation of mobile communication has been associated with higher data rates than the previous generation. So 5G new spectrum radio access should support data rates exceeding 10 Gbps in most of its applications. An Ultra Wide Band (UWB) ultrahigh data rate full six-port receiver architecture up to 6.7 Gbps for 5G new spectrum is presented in this paper. The proposed structure is constructed using one UWB ultra-high data rate Wilkinson power divider/combiner and three UWB ultra-high data rate two-stage branch line couplers which are the essential components of any full sixport structure. The design procedure, optimization and implementation of these two UWB essential components in 21-30 GHz are completely done to achieve the optimum performance of final six-port structure. The final fabrication results show the average of −14 dB of input matching, −20 dB of isolation of isolated Ports, −4.2 dB of coupling in output ports (considering 2 SMA connectors and transitions in each path), and linear phase variation of outputs in the whole bandwidth of 21-30 GHz. To analyze and qualify the UWB six-port structure in any specific application in 5G and other UWB high data rate applications, a new analytical formulation with a new six-port structure of non-ideal UWB six-port circuit is presented. With this new analytical model and new configuration, there is no need to calibrate the outputs of in-phase and quad phase of the six-port receiver outputs. Based on the final fabricated essential components and the new analytical model, the final full six-port structure is constructed and analysed using UWB-OFDM with QPSK and 16QAM demodulation schemes in its sub-bands. To complete and verify the new analysis and to validate the final constructed UWB six-port structure and its essential components in ultra-high data rate application in 5G new spectrum, the UWB-IR impulse radio with modulated ultra-high data rate signal up to 7 Gbps and in 21-30 GHz bandwidth is completely discussed. The results show that all clusters of demodulated constellations are very well positioned and individualized in whole bandwidth in all modulation schemes. Also this new design and configuration of six-port receiver improves the dynamic range of the RF input signals up to 60 dB which is valuable. During the design procedure, a very useful method to choose the suitable laminate based on the time, frequency and two dimensional Wigner-Vile Distribution methods is presented. Also, some practical issues in design and implementation of the UWB microstrip component such as transitions are considered to achieve the best results.

Frequency and Time Domain Design, Analysis and Implementation of a Multi-GBPS Uwb Wilkinson Power Divider for 5g New Spectrum and Car Applications

“…The second structure is considered based on the Wilkinson power divider introduced in [7,16]. The authors in [16] presented the design, development and construction of a new Ultra High Data Rate Six-port Receiver for 5 G New Spectrum Radio Access and CAR applications.…”

“…The authors in [16] presented the design, development and construction of a new Ultra High Data Rate Six-port Receiver for 5 G New Spectrum Radio Access and CAR applications. Because of large amount of design process and considerations and existent of many design procedures and results, the final results were presented in [16].…”

“…The authors in [16] presented the design, development and construction of a new Ultra High Data Rate Six-port Receiver for 5 G New Spectrum Radio Access and CAR applications. Because of large amount of design process and considerations and existent of many design procedures and results, the final results were presented in [16]. In this paper, to reach our main goals in [16] (Ultra High Data Rate Six-port Receiver) and also to reach main goals together with new design approach, the design and development of many circuits must introduce, discuss and improve new designs, new analysis (time domain ultra data rate analysis) and new valuable transition design and implementations.…”

“…Wave ports are considered because in this section the focus is on dispersion behaviors of different laminates. All analysis steps in time and frequency domains introduced in [12] applied to these laminates and for abstracting the final two-dimensional analysis based on the Wigner-Ville distribution are presented here, which can be expressed by the following equation [16].…”

“…In this paper, to reach our main goals in [16] (Ultra High Data Rate Six-port Receiver) and also to reach main goals together with new design approach, the design and development of many circuits must introduce, discuss and improve new designs, new analysis (time domain ultra data rate analysis) and new valuable transition design and implementations. In a previous paper, the authors used the same results of the final designed and implemented Wilkinson power divider of this paper, and consequently, the final simulated and experimental results of the final Wilkinson power divider of this paper are the same as those of the authors' previous paper [16], such as Figure 8 Figure 15, and Figure 16. At near millimeter wave frequencies, the two output arms of the conventional Wilkinson circuit must be placed very close to each other, to be connected to the 100 Ω resistor.…”