Design of mm-Wave transmitter and receiver for 5G

Chen, Jixin; Lin, Weiquan; Yan, Pinpin; Xu, Jun; Hou, Debin; Wang, Hong

doi:10.1109/gsmm.2017.7970330

Cited by 10 publications

(5 citation statements)

References 6 publications

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“…They have been commonly used in wireless communication systems like mmWave-enabled smartphones and internet-of-things devices, where limited space and a compact design is required. A typical mmWave transmitter configuration can be divided into three parts: RF transmitter cell modules, IF/LO modules and power supply module [73]. All these parts are integrated into a compact mechanic structure.…”

Section: B Transceiver Designs 1) Thz Transceiver Designmentioning

confidence: 99%

Multi-Band Wireless Communication Networks: Fundamentals, Challenges, and Resource Allocation

Aboagye,

Amin Saeidi,

Tabassum

et al. 2024

IEEE Trans. Commun.

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The sub-6 GHz spectrum and the millimeter wave frequency band, with its huge spectrum, have been exploited in the past years to meet the traffic demands of wireless communication networks. However, the limited and licensed spectrum of these bands cannot support the massive connectivity requirements, the exponential growth of data traffic, and the strict quality-of-service requirements for 6G and beyond wireless systems. Extremely high frequencies, such as optical and terahertz, which offer much wider transmission bandwidths with extreme data rate capabilities, are expected to play key roles in the 6G and beyond era. As a result, futuregeneration wireless networks will transition from single-band and heterogeneous networks to multi-band networks (MBNs), where various frequency bands coexist. Despite the great potential of MBNs, they face novel challenges from channel modeling, transceiver and antenna design, programmable simulation platforms, standardization activities, and resource allocation. This paper provides a tutorial overview from the communication design perspective of the various frequency bands, elaborating on the above issues. Then, we introduce and examine typical MBN architectures for future networks and provide a detailed overview of state-of-the-art resource allocation problems for existing MBNs that typically operate on two frequency bands. The considered resource allocation optimization problems and solution techniques are discussed comprehensively. We then identify key performance metrics and constraint sets that should be considered for resource allocation optimization in future MBNs and provide numerical results to depict how various system parameters and user behaviors can influence their performance. Finally, we present several potential research issues as future work for the design and performance optimization of MBNs.

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Section: B Transceiver Designs 1) Thz Transceiver Designmentioning

confidence: 99%

Multi-Band Wireless Communication Networks: Fundamentals, Challenges, and Resource Allocation

Aboagye,

Amin Saeidi,

Tabassum

et al. 2024

IEEE Trans. Commun.

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“…In recent decades, the development and utilization of mm-wave frequency band has become the main research hotspot of the RoF network system [11]. Such high-rate wireless networks can be as fast as or possibly faster than optical fibers.…”

Section: Introductionmentioning

confidence: 99%

Review on the Millimeter-Wave Generation Techniques Based on Photon Assisted for the RoF Network System

Xiao

Zhao

Feng

et al. 2020

Advances in Condensed Matter Physics

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With the development trend of wireless and broadband in the communication link and even the whole information industry, the demand of high-frequency microwave bandwidth has been increasing. The RoF network system solves the problem of spectrum congestion in low-frequency band by providing an effective technology for the distribution of high-frequency microwave signals over optical fiber links. However, the traditional mm-wave generation technique is limited by the bandwidth of electronic devices. It is difficult to generate high-frequency and low-phase noise mm-wave signals with pure electrical components. The mm-wave communication technology based on photon assisted can overcome the bandwidth bottleneck of electronic devices and provide the potential for developing the low-cost infrastructure demand of broadband mobile services. This paper will briefly explain the characteristics of the RoF network system and the advantages of high-frequency mm-wave. Then we, respectively, introduce the modulation schemes of RoF mm-wave generation based on photon assisted including directly modulated laser (DML), external modulation, and optical heterodyne. The review mainly focuses on a variety of different mm-wave generation technologies including multifrequency vector mm-wave. Furthermore, we list several approaches to realize the large capacity data transmission techniques and describe the digital signal processing (DSP) algorithm flow in the receiver. In the end, we summarize the RoF network system and look forward to the future.

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“…References presented a similar MMW transmitter architecture (see Figure ) implemented by the mixer and the Local Oscillator (LO) to convert the baseband signal to MMW range. The first transmitter was a single chip MMIC realized by a fourth sub‐harmonically pumped up conversion mixer with the total power consumption of 228 mW, the output P −1 dB level of 4 dBm and the chip size of 3.9 × 2 mm 2 .…”

Section: Introductionmentioning

confidence: 99%

A 0.5 nJ/b 60 GHz ultra wideband transmitter for short range wireless sensor network applications

Jin¹,

Rolland

2020

Micro & Optical Tech Letters

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A novel monolithic microwave integrated circuit (MMIC) design of ultra wide band (UWB) transmitter at 60 GHz with simple architecture and high‐range resolution ability is presented in this paper. Implemented with 0.1 μm 100 GHz GaAs positive channel high electron mobility transistor (PHEMT) technology offered by OMMIC, the transmitter comprises a millimeter wave oscillator, a buffer amplifier (BA), a medium power amplifier (MPA) and two UWB Pulse Generators (UWBPG). For the sake of the goal on reducing the entire transmitter consumption, the oscillator is controlled by one UWBPG and another UWBPG drives the BA and MPA simultaneously. The transmitter has infinite isolation level to minimize the interference with neighboring devices. For a pulse repetitive time of 5 ns, pulse width of 500 ps and supply voltage of 3 V, the transmitter consumes only 101 mW and has a peak transmit power of 9.2 dBm corresponding to 0.5 nJ per pulse energy consumption, which is suitable for future short range wireless sensor network (WSN) applications.

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Design of mm-Wave transmitter and receiver for 5G

Cited by 10 publications

References 6 publications

Multi-Band Wireless Communication Networks: Fundamentals, Challenges, and Resource Allocation

Multi-Band Wireless Communication Networks: Fundamentals, Challenges, and Resource Allocation

Review on the Millimeter-Wave Generation Techniques Based on Photon Assisted for the RoF Network System

A 0.5 nJ/b 60 GHz ultra wideband transmitter for short range wireless sensor network applications

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