具体描述
基本信息
- 商品名称：光子辅助的毫米波通信技术(精)
- 作者：余建军
- 定价：128
- 出版社：科学
- ISBN号：9787030561497
其他参考信息（以实物为准）
- 出版时间：2018-03-01
- 印刷时间：2018-03-01
- 版次：1
- 印次：1
- 开本：16开
- 包装：精装
- 页数：286
- 字数：360千字
内容提要
余建军著的《光子辅助的毫米波通信技术(精)》 介绍了基于光子辅助的毫米波通信的新技术。主要内 容包括光子辅助的单载波和多载波的矢量毫米波信号 产生技术，利用光纤极化复用、天线极化复用、多波 段复用等多输入多输出技术的宽带毫米波信号传输技 术，以及各种用于提高传输容量和提高接收机性能算 法的、基于外差相干探测的数字信号处理技术。在网 络架构方面介绍了双向全双工毫米波传输和光纤无线 无缝传输，也介绍了在大容量和长距离传输方面的* 新研究成果。本书概括了光子辅助毫米波通信中从系 统到网络的新技术，从原理到应用都有系统而又详细 的介绍。
本书适合通信领域的工程技术人员，以及高等院 校通信工程等相关专业的研究生和教师阅读。
目录
序
前言
第1章 基于强度调制器的单载波矢量毫米波信号传输系统
1.1 引言
1.2 光子辅助毫米波产生技术
1.3 马赫一曾德尔调制器工作原理
1.4 基于马赫一曾德尔调制器载波抑制方式的矢量信号产生系统
1.4.1 基于外部调制器产生载波抑制的毫米波信号
1.4.2 基于外部调制器产生载波抑制的矢量毫米波信号
1.4.3 理论推导
1.4.4 实验测试
1.5 基于马赫一曾德尔调制器的四倍频毫米波产生技术
1.6 基于单个马赫一曾德尔调制器的偏振复用矢量信号传输系统
1.6.1 原理介绍
1.6.2 实验装置
1.6.3 实验结果
1.7 小结
参考文献
第2章 基于相位调制器的单载波矢量毫米波信号传输系统
2.1 基于相位调制器的光子倍频的矢量毫米波信号生成
2.2 基于相位调制器的随机光子倍频的矢量毫米波信号生成
2.2.1 数值仿真
2.2.2 实验装置
2.2.3 实验结果
2.3 小结
参考文献
第3章 基于直接调制激光器产生SSB和DSB矢量信号
3.1 引言
3.2 原理介绍
3.3 实验装置和实验结果
3.4 小结
参考文献
第4章 高性能的单载波矢量毫米波生成技术
4.1 光载波抑制矢量毫米波中的平衡预编码技术
4.2 相位因子优化的预编码矢量信号系统
4.2.1 原理介绍
4.2.2 实验装置
4.2.3 实验结果
4.3 基于外差拍频和强度调制器的矢量信号产生
4.4 无预编码的光子辅助SSB单偏振毫米波信号产生
4.5 无预编码的光子辅助SSB双偏振毫米波信号产生
4.6 小结
参考文献
第5章 基于预编码的OFDM矢量毫米波信号传输系统
5.1 引言
5.2 载波抑制OFDM矢量信号系统
5.3 偶数阶载波抑制OFDM矢量信号系统
5.3.1 实验装置
5.3.2 实验结果
5.4 奇数阶载波抑制w波段毫米波OFDM矢量信号系统
photonic-assisted millimeter-wave communication technologies (advanced) Introduction The ever-increasing demand for higher data rates and lower latency in wireless communication systems has pushed the boundaries of traditional radio frequency (RF) technologies. Millimeter-wave (mmWave) frequencies, ranging from 30 GHz to 300 GHz, offer vast untapped bandwidth, promising terabit-per-second data rates and enabling a new era of wireless applications such as augmented reality, virtual reality, autonomous driving, and high-definition video streaming. However, mmWave signals suffer from significant path loss, atmospheric attenuation, and blockage by obstacles, posing substantial challenges for reliable and efficient wireless transmission. To overcome these limitations and fully harness the potential of mmWave frequencies, innovative solutions are required. Photonic technologies, with their inherent ability to process signals at extremely high frequencies and with high precision, offer a compelling pathway to augment and enhance mmWave communication systems. This book delves into the cutting-edge realm of photonic-assisted mmWave communication technologies, exploring how the synergistic integration of optics and mmWave electronics can pave the way for next-generation wireless networks. This comprehensive exploration aims to provide a deep understanding of the fundamental principles, enabling technologies, and diverse applications of photonic assistance in mmWave communication. We will meticulously dissect the intricate interplay between optical and electrical domains, highlighting the unique advantages and technical considerations that arise from their integration. The "advanced" designation signifies a thorough and in-depth treatment of the subject matter, suitable for researchers, engineers, and advanced students seeking to grasp the nuances and future trajectory of this rapidly evolving field. Chapter Overview This book is structured to provide a progressive and comprehensive understanding of photonic-assisted mmWave communication. We begin by laying the foundational groundwork, then delve into specific photonic techniques and their integration challenges, and finally explore the diverse applications and future outlook. Part I: Foundations of Millimeter-Wave Communication and Photonic Concepts Chapter 1: The mmWave Spectrum and its Potential: This chapter will introduce the electromagnetic spectrum, with a particular focus on the millimeter-wave bands. We will discuss the inherent advantages of mmWave frequencies, such as vast bandwidth availability, and their implications for achieving ultra-high data rates. The unique propagation characteristics of mmWave signals, including high path loss, atmospheric absorption, and sensitivity to blockage, will be thoroughly examined. Furthermore, we will explore the driving forces behind the adoption of mmWave for future wireless systems, including the limitations of sub-6 GHz bands and the emerging use cases that necessitate higher bandwidths. Chapter 2: Fundamentals of Optical Communication and Photonics: This chapter will provide a concise yet thorough review of the core principles of optical communication. We will cover the generation, transmission, and detection of optical signals, including various light sources (lasers, LEDs), optical fibers, and photodetectors. Essential photonic concepts such as modulation techniques (intensity modulation, phase modulation), multiplexing schemes (WDM, TDM), and signal processing in the optical domain will be introduced. The unique properties of light, including its high frequency, low loss in optical fibers, and inherent parallelism, will be emphasized as key enablers for photonic assistance. Chapter 3: Interfacing Optical and Electrical Domains: A critical aspect of photonic-assisted mmWave communication is the seamless conversion between optical and electrical signals. This chapter will focus on the technologies and challenges associated with this interface. We will discuss various optoelectronic conversion devices, including high-speed photodetectors (e.g., PIN diodes, APDs, UTC-PDs) and electro-optic modulators (e.g., Mach-Zehnder modulators, electro-absorption modulators). The performance limitations of these devices, such as bandwidth, responsivity, noise, and power consumption, will be analyzed in detail. Techniques for optimizing this interface for mmWave frequencies will be explored. Part II: Photonic Techniques for mmWave Communication Enhancement Chapter 4: Photonic Generation of mmWave Signals: Generating stable and spectrally pure mmWave signals directly from electrical sources can be complex and power-hungry. This chapter will explore various photonic techniques for efficient mmWave signal generation. We will discuss heterodyne and homodyne optical mixing, where two optical carriers with a specific frequency difference are mixed to generate mmWave frequencies. Techniques like optical frequency combs and the use of external modulators to imprint mmWave information onto optical carriers will be analyzed. The advantages of photonic generation in terms of spectral purity, tunability, and potential for reconfigurability will be highlighted. Chapter 5: Photonic Beamforming and Antenna Array Control: Beamforming is crucial for overcoming mmWave path loss by directing the signal towards the intended receiver. This chapter will detail how photonic techniques can enable advanced beamforming capabilities for mmWave antenna arrays. We will explore optical phased arrays (OPAs), where the phase of optical signals feeding individual antenna elements is controlled optically, leading to precise and fast beam steering. Techniques for photonic control of RF phase shifters and amplitude controllers for mmWave antenna arrays will be examined. The benefits of photonic beamforming, including reduced hardware complexity, lower power consumption, and increased flexibility, will be discussed. Chapter 6: Photonic Signal Processing for mmWave Systems: Signal processing plays a vital role in modern communication systems, encompassing tasks like equalization, filtering, and modulation/demodulation. This chapter will investigate how photonic signal processing can be leveraged for mmWave applications. We will discuss optical signal processing techniques that can perform complex operations on mmWave signals in the optical domain, potentially offering advantages in speed and efficiency over their electronic counterparts. This includes optical filtering, optical switching, and optical frequency conversion for channel selection and signal manipulation. Chapter 7: Photonic Approaches for mmWave Channel Equalization and Mitigation of Impairments: The challenging propagation environment of mmWave frequencies often necessitates sophisticated channel equalization techniques to combat multipath fading, dispersion, and other impairments. This chapter will explore photonic solutions for addressing these issues. We will analyze how optical signal processing can be used to implement adaptive equalizers, mitigating channel distortions. Furthermore, we will examine photonic techniques for compensating for atmospheric attenuation and improving signal-to-noise ratio (SNR) in mmWave links. Part III: Integration Architectures and Applications Chapter 8: Hybrid Optoelectronic Architectures for mmWave Communication: The integration of photonic and electronic components leads to various hybrid architectures. This chapter will analyze different architectural approaches that combine optical and electronic functionalities for mmWave communication. We will discuss architectures such as radio-over-fiber (RoF) systems, where mmWave signals are transported over optical fiber, and integrated optoelectronic transceivers for mmWave base stations and user equipment. The trade-offs and performance implications of these hybrid designs will be thoroughly evaluated. Chapter 9: mmWave Wireless Backhaul and Fronthaul with Photonic Integration: High-capacity wireless backhaul and fronthaul networks are essential for supporting dense deployments of mmWave small cells and base stations. This chapter will focus on the role of photonic-assisted mmWave technologies in enabling efficient and cost-effective backhaul and fronthaul solutions. We will explore how RoF and other photonic integration techniques can provide the necessary bandwidth and low latency for connecting the radio access network to the core network, facilitating the deployment of future 5G and beyond wireless infrastructure. Chapter 10: mmWave Networks for 5G and Beyond: Photonic Enablement: This chapter will delve into the specific applications and benefits of photonic-assisted mmWave communication within the context of 5G and future wireless generations (e.g., 6G). We will discuss how these technologies can empower enhanced mobile broadband (eMBB), ultra-reliable low-latency communication (URLLC), and massive machine-type communication (mMTC) services. Use cases such as fixed wireless access (FWA), industrial IoT, smart cities, and vehicular communication will be examined in detail, highlighting the unique contributions of photonic assistance. Chapter 11: Advanced Topics and Future Trends: This chapter will explore emerging research frontiers and future trends in photonic-assisted mmWave communication. We will discuss topics such as AI-driven photonic signal processing, reconfigurable photonic devices for mmWave, integration with new materials, and the challenges and opportunities for miniaturization and cost reduction. The long-term vision for photonic-assisted mmWave systems and their potential impact on future wireless ecosystems will be considered. Conclusion This book provides a deep and comprehensive exploration of photonic-assisted mmWave communication technologies. By meticulously detailing the fundamental principles, state-of-the-art techniques, integration challenges, and diverse applications, it aims to equip readers with the knowledge necessary to understand and contribute to this dynamic field. The integration of photonics offers a powerful and elegant solution to unlock the full potential of the vast mmWave spectrum, paving the way for the next generation of ultra-high-speed, low-latency wireless communication systems. The advanced treatment of the subject matter ensures that this book serves as an invaluable resource for researchers, engineers, and students seeking to stay at the forefront of wireless innovation.
