This book brings together contributions from leading researchers who are engaged in the research and development of next generation cognitive abilities in radar engineering. It features recent advances in the theory and applications of advanced Cognitive Radar (CR) tools as well as examines emerging challenges. The chapters include mathematical and computational methods to combat important CR challenges as well as the applications of recent theories and algorithms to various applied CR aspects. The book is intended to be used as a supplementary text for first-level graduate courses on radar theory and systems, radar signal processing, detection and estimation theory, and array signal processing. The book can also be used as a main textbook for upper-level graduate courses such as advanced topics in electromagnetics, advanced topics in radar, rf and communications, and contemporary topics in signal processing and optimization.

Principles of Anaesthesia Equipment provides guidance on the safe use of a wide range of anaesthesia apparatus, edited by recognised experts based in Boston, USA and the University of the West Indies, Barbados. Divided into thirteen chapters, the book begins with the applied physics of anaesthesia equipment, before covering individual instruments and groups of instruments by chapter. Equipment covered includes anaesthesia machines and work stations, anaesthesia breathing systems, equipment for endotracheal intubation, electrocautery and lasers, equipment for regional anaesthesia, and ultrasound equipment for neuraxial blocks. The final chapter covers the use of simulators in anaesthesia training. Safety tips are included in chapters on pre-use checks of anaesthetic equipment, electrical safety, disinfection and sterilisation. A separate chapter on monitoring features capnography and state-of-the-art cardiac output monitors. Enhanced by 85 full colour illustrations, Principles of Anaesthesia Equipment is an essential resource for anaesthetists and anaesthesia trainees. Key Points Comprehensive guide to the safe use of a range of anaesthesia equipment Recognised editorial team from Brigham and Women's Hospital, Boston, USA and University of West Indies 85 full colour illustrations

Written by a highly regarded expert in the field of obstetric anesthesia

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In the last five years, significant developments and applications have been made within radar communications. Signal Processing for Joint Radar-Communications delves into the recent advances within the theory and applications of joint radar-communications (JRC) and includes the challenges that are still faced today. Bringing together newly written expert contributions from leading researchers within the field of Joint Radar-Communications, the book tackles key JRC signal processing challenges such as common waveform design for both radar and communications systems, receiver processing including interference mitigation methods, learning and cognition, resource allocation, jamming and clutter, optimization methods, and automotive JRC. It presents possible solutions to these challenges and highlights some future research directions. The goal of this book is to further contribute to the diffusion of newly developed JRC tools into the radar and communications communities and to illustrate recent successes in applying modern signal processing theories to solving core problems in JRC. The contributors present new results on algorithmic methods and applications of JRC in diverse areas, which include autonomous vehicles, waveform design, information theory, privacy, security, beamforming, estimation theory, and sampling. This reflects the increasing number of applications in signal processing and communications. Research activities covered in the book include recognizing and solving convex optimization problems that arise in applications, deriving powerful algorithmic methods, utilizing the theory of convex problems to characterize and gain insight into the optimal solution and bounds on performance, developing techniques for exploiting problem structure in interior-point methods for large scale optimization, and convex relaxations of hard, non-convex problems