Features In-depth coverage of the role of AI in smart healthcare. Research guideline for AI and data science researchers/practitioners interested in the healthcare sector. Comprehensive coverage on security and privacy issues for AI in smart healthcare.

The book provides thorough discussion on emerging topics related to 6G wireless communication systems such as programmable wireless environment (PWE); distributed and pervasive AI for wireless communications as well as terahertz (THz) communications. 6G Wireless: The Communication Paradigm Beyond 2030 provides comprehensive coverage of the vision, requirement, use-cases, enabling technologies, and challenges for the future 6G wireless communication systems. This will include key use cases such as Immersive and eXtended reality (IXR), advanced VR/AR, intelligent humanoid robotics/devices, fully autonomous transportation, intelligent and ubiquitous healthcare, neural communication through brain interface, remote surgery, holographic/3D video communications, high precision autonomous manufacturing and haptic/tactile communications. For those use cases, the book thoroughly analyses the challenges and requirements followed by providing in-depth coverage of potential enabling technologies like terahertz communications, pervasive and distributed AI battery- less/ultra-low-power devices, programmable wireless environment, metasurface for reconfigurability, cell-free or cell-less architecture, quantum communications, 3D beamforming, energy harvesting, and wireless power transfer, optical and visible light communications, blockchain, and so on. The book also presents the significant challenges facing the research community to meet the 6G requirements as well as potential research directions to address these challenges Written in tutorial style the primary audience of the book is postgraduate students and researchers in the broad domain of wireless communications as well as research-active academics. The book can also be useful as a reference book for BSc/MSc project/thesis works.

The objective of this edited book is to gather best practices in the development and management of mobile apps projects. Mobile Apps Engineering aims to provide software engineering lecturers, students and researchers of mobile computing a starting point for developing successful mobile apps. To achieve these objectives, the book's contributors emphasize the essential concepts of the field, such as apps design, testing and security, with the intention of offering a compact, self-contained book which shall stimulate further research interest in the topic. The editors hope and believe that their efforts in bringing this book together can make mobile apps engineering an independent discipline inspired by traditional software engineering, but taking into account the new challenges posed by mobile computing.

The objective of this edited book is to gather best practices in the development and management of mobile apps projects. Mobile Apps Engineering aims to provide software engineering lecturers, students and researchers of mobile computing a starting point for developing successful mobile apps. To achieve these objectives, the book's contributors emphasize the essential concepts of the field, such as apps design, testing and security, with the intention of offering a compact, self-contained book which shall stimulate further research interest in the topic. The editors hope and believe that their efforts in bringing this book together can make mobile apps engineering an independent discipline inspired by traditional software engineering, but taking into account the new challenges posed by mobile computing.

Orthogonal Frequency Division Multiplexing (OFDM) is a promising technique for recent and future wireless communication systems mainly due to its high spectral efficiency and inherent capacity to combat Inter Symbol Interference (ISI). However it suffers from nonlinear error problem, popularly known as high Peak to Average Power Ratio (PAPR) due to nonlinear transfer function of Power Amplifiers in Transmitters. It causes severe performance degradation to the systems that employ link adaptation for achieving better efficiency such as LTE and WiMAX. Therefore it is important to understand the nature and impact of the error. This book will discuss basics of OFDM and provide an in depth understanding of the nonlinear error and its impact of link adaptive OFDM systems. It also provides detail simulation results and analysis of its impact on the system for different channel condition, modulation and FEC coding rate. Finally a compensation technique will be introduced to overcome the impact of nonlinear errors.