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5G traffic has very diverse requirements with respect to data rate, delay, and reliability. The concept of using multiple OFDM numerologies adopted in the 5G NR standard will likely meet these multiple requirements to some extent. However, the traffic is radically accruing different characteristics and requirements when compared with the initial stage of 5G, which focused mainly on high-speed multimedia data applications. For instance, applications such as vehicular communications and robotics control require a highly reliable and ultra-low delay. In addition, various emerging M2M applications have sparse traffic with a small amount of data to be delivered. The state-of-the-art OFDM technique has some limitations when addressing the aforementioned requirements at the same time. Meanwhile, numerous waveform alternatives, such as FBMC, GFDM, and UFMC, have been explored. They also have their own pros and cons due to their intrinsic waveform properties. Hence, it is the opportune moment to come up with modification/variations/combinations to the aforementioned techniques or a new waveform design for 5G systems and beyond. The aim of this Special Issue is to provide the latest research and advances in the field of waveform design for 5G systems and beyond.
Technology: general issues --- History of engineering & technology --- Energy industries & utilities --- multicarrier modulation --- prototype filter design --- frequency sampling methods --- windowing based methods --- optimization based methods --- V2X --- LDS-F-OFDM --- LDS-UFMC --- EVA channel model --- multi-input-multi-output (MIMO) --- space time block coding --- physical layer security (PLS) --- secrecy capacity --- 5G waveform --- SC-FDMA --- FBMC --- Low PAPR FBMC (LP-FBMC) --- access timing offset --- carrier frequency offset --- high-power amplifier (HPA) nonlinearity --- software defined radio (SDR) device --- uplink indoor channel --- out-of-band (OOB) emission --- space time codes --- differential space time modulation --- differential detection --- pair-wise detection --- maximum likelihood detection --- n/a
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5G traffic has very diverse requirements with respect to data rate, delay, and reliability. The concept of using multiple OFDM numerologies adopted in the 5G NR standard will likely meet these multiple requirements to some extent. However, the traffic is radically accruing different characteristics and requirements when compared with the initial stage of 5G, which focused mainly on high-speed multimedia data applications. For instance, applications such as vehicular communications and robotics control require a highly reliable and ultra-low delay. In addition, various emerging M2M applications have sparse traffic with a small amount of data to be delivered. The state-of-the-art OFDM technique has some limitations when addressing the aforementioned requirements at the same time. Meanwhile, numerous waveform alternatives, such as FBMC, GFDM, and UFMC, have been explored. They also have their own pros and cons due to their intrinsic waveform properties. Hence, it is the opportune moment to come up with modification/variations/combinations to the aforementioned techniques or a new waveform design for 5G systems and beyond. The aim of this Special Issue is to provide the latest research and advances in the field of waveform design for 5G systems and beyond.
multicarrier modulation --- prototype filter design --- frequency sampling methods --- windowing based methods --- optimization based methods --- V2X --- LDS-F-OFDM --- LDS-UFMC --- EVA channel model --- multi-input-multi-output (MIMO) --- space time block coding --- physical layer security (PLS) --- secrecy capacity --- 5G waveform --- SC-FDMA --- FBMC --- Low PAPR FBMC (LP-FBMC) --- access timing offset --- carrier frequency offset --- high-power amplifier (HPA) nonlinearity --- software defined radio (SDR) device --- uplink indoor channel --- out-of-band (OOB) emission --- space time codes --- differential space time modulation --- differential detection --- pair-wise detection --- maximum likelihood detection --- n/a
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5G traffic has very diverse requirements with respect to data rate, delay, and reliability. The concept of using multiple OFDM numerologies adopted in the 5G NR standard will likely meet these multiple requirements to some extent. However, the traffic is radically accruing different characteristics and requirements when compared with the initial stage of 5G, which focused mainly on high-speed multimedia data applications. For instance, applications such as vehicular communications and robotics control require a highly reliable and ultra-low delay. In addition, various emerging M2M applications have sparse traffic with a small amount of data to be delivered. The state-of-the-art OFDM technique has some limitations when addressing the aforementioned requirements at the same time. Meanwhile, numerous waveform alternatives, such as FBMC, GFDM, and UFMC, have been explored. They also have their own pros and cons due to their intrinsic waveform properties. Hence, it is the opportune moment to come up with modification/variations/combinations to the aforementioned techniques or a new waveform design for 5G systems and beyond. The aim of this Special Issue is to provide the latest research and advances in the field of waveform design for 5G systems and beyond.
Technology: general issues --- History of engineering & technology --- Energy industries & utilities --- multicarrier modulation --- prototype filter design --- frequency sampling methods --- windowing based methods --- optimization based methods --- V2X --- LDS-F-OFDM --- LDS-UFMC --- EVA channel model --- multi-input-multi-output (MIMO) --- space time block coding --- physical layer security (PLS) --- secrecy capacity --- 5G waveform --- SC-FDMA --- FBMC --- Low PAPR FBMC (LP-FBMC) --- access timing offset --- carrier frequency offset --- high-power amplifier (HPA) nonlinearity --- software defined radio (SDR) device --- uplink indoor channel --- out-of-band (OOB) emission --- space time codes --- differential space time modulation --- differential detection --- pair-wise detection --- maximum likelihood detection
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Designed to help teach and understand communication systems using a classroom-tested, active learning approach. This book covers the basic concepts of signals, and analog and digital communications, to more complex simulations in communication systems. Problem-Based Learning in Communication Systems Using MATLAB and Simulink begins by introducing MATLAB and Simulink to prepare readers who are unfamiliar with these environments in order to tackle projects and exercises included in this book. Discussions on simulation of signals, filter design, sampling and reconstruction, and analog communications are covered next. The book concludes by covering advanced topics such as Viterbi decoding, OFDM and MIMO. In addition, this book contains examples of how to convert waveforms, constructed in simulation, into electric signals. It also includes problems illustrating how to complete actual wireless communications in the band near ultrasonic frequencies. A content-mapping table is included in this book to help instructors easily find lab projects for communications, wireless communications, and signal and systems classes. Special features of this book: . Discusses communication concepts and algorithms, which are explained using simulation projects, accompanied by MATLAB and Simulink. Provides step-by-step code exercises and instructions to implement execution sequences. Includes a companion website that has MATLAB and Simulink model samples and templates (link provided below) This book is intended for students and instructors, enrolled in or teaching communications systems, analog and digital communications, and wireless communication courses. Kwonhue Choi is a Professor in the Department of Information and Communication Engineering and the Principal Director of Broadband Wireless Communication (BWC) Laboratory at Yeungnam University, Korea. His research areas include efficient multiple access, diversity schemes, and cooperative communications for Fifth-Generation (5G) and beyond systems. He is the inventor of FADAC-OFDM and PSW (Properly scrambled Walsh) codes. Huaping Liu is a Professor with the School of Electrical Engineering and Computer Science at Oregon State University, USA. He was formerly a cellular network radio frequency systems engineer specializing on modeling, simulating, optimizing, and testing various digital communication systems. Dr. Liu received his PhD in Electrical Engineering at New Jersey Institute of Technology, USA.
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