Sleep and anesthesia resemble in many ways at a first glance. The most prominent common feature of course is the loss of consciousness, i.e. the loss of awareness of external stimuli. However a closer look at the loss of consciousness reveals already a difference between sleep and anesthesia: anesthesia is induced by an anesthetic drug whereas we may fall asleep without external cause. Other questions may arise about the difference of the two effects: do we dream during surgery under anesthesia, do we feel pain during sleep? Essentially, we may ask: what is common and what are the differences between sleep and anesthesia? To answer these questions, we may take a look at the neural origin of both effects and the involved physiological pathways. In which way do they resemble? Moreover, we ask what are the detailed features of normal sleep and general anesthesia as applied during surgery and which features exist in both phenomena? If yes in which way? To receive answers to these questions, it is necessary to consider several experimental techniques that reveal underlying neural mechanisms of sleep and anesthesia. Moreover, theoretical models of neural activity may model both phenomena and comes up with predictions or even theories on the underlying mechanisms. Such models may attack several different description levels, from the microscopic level of single neurons to the macroscopic level of neural populations. Such models may give deeper insight into the phenomena if their assumptions are based on experimental findings and their predictions can be compared to experimental results. This comparison step is essential for valuable theoretical models. The book is motivated by two successful workshops on anesthesia and sleep organized during the Computational Neuroscience Conferences in Toronto in 2007 and in Berlin 2009. It aims to cover all the previous aspects with a focus on the link to experimental findings. It elucidates important issues in theoretical models that at the same time reflect some current major research interests. Moreover it considers some diverse issues which are very important to get an overview of the fields. For instance, the book discusses not only neural activity in the brain but also the effects of general anesthesia on the cardio-vascular system and the spinal cord in the context of analgesia. In addition, it considers different experimental techniques on various spatial scales, such as fMRI and EEG-experiments on the macroscopic scale and single neuron and LFP-measurements on the microscopic scale. In total all book chapters reveal aspects of the neural correlates of sleep and anesthesia motivated by experimental data. This focus on the neural mechanism in the light of experimental data is the common feature of the topics and the chapters. In addition, the book aims to clarify the shared physiological mechanisms of both phenomena, but also reveal their physiological differences.

In recent years our understanding of molecular mechanisms of drug action and interindividual variability in drug response has grown enormously. Meanwhile, the practice of anesthesiology has expanded to the preoperative environment and numerous locations outside the OR. Anesthetic Pharmacology: Basic Principles and Clinical Practice, 2nd edition, is an outstanding therapeutic resource in anesthesia and critical care: Section 1 introduces the principles of drug action, Section 2 presents the molecular, cellular and integrated physiology of the target organ/functional system and Section 3 reviews the pharmacology and toxicology of anesthetic drugs. The new Section 4, Therapeutics of Clinical Practice, provides integrated and comparative pharmacology and the practical application of drugs in daily clinical practice. Edited by three highly acclaimed academic anesthetic pharmacologists, with contributions from an international team of experts, and illustrated in full colour, this is a sophisticated, user-friendly resource for all practitioners providing care in the perioperative period.

The clinical practice of anesthesia has undergone many advances in the past few years, making this the perfect time for a new state-of-the-art anesthesia textbook for practitioners and trainees. The goal of this book is to provide a modern, clinically focused textbook giving rapid access to comprehensive, succinct knowledge from experts in the field. All clinical topics of relevance to anesthesiology are organized into 29 sections consisting of more than 180 chapters. The print version contains 166 chapters that cover all of the essential clinical topics, while an additional 17 chapters on subjects of interest to the more advanced practitioner can be freely accessed at www.cambridge.org/vacanti. Newer techniques such as ultrasound nerve blocks, robotic surgery and transesophageal echocardiography are included, and numerous illustrations and tables assist the reader in rapidly assimilating key information. This authoritative text is edited by distinguished Harvard Medical School faculty, with contributors from many of the leading academic anesthesiology departments in the United States and an introduction from Dr S. R. Mallampati. This book is your essential companion when preparing for board review and recertification exams and in your daily clinical practice.

“An engaging and illuminating exploration of the invisible medical specialty that is anesthesia.… Counting Backwards pulls back the veil on the very act of being alive.” —Danielle Ofri, MD, PhD, author of What Patients Say, What Doctors Hear For many of the 40 million Americans who undergo it each year, anesthesia is the source of great fear and fascination. In Counting Backwards, pediatric anesthesiologist Dr. Henry Jay Przybylo delivers an unforgettable account of the procedure’s daily dramas and fundamental mysteries. Przybylo has administered anesthesia more than 30,000 times over his thirty-year career: on newborn babies, screaming toddlers, sullen teenagers, even a gorilla. Filled with intense moments of near-disaster, life-saving successes, and simple grace, Counting Backwards is for anyone curious about what happens after we lose consciousness.

This book provides an easy-to-read introduction to this important topic that will be of value to a wide spectrum of healthcare professionals including anaesthetists, intensivists, ODPs, theatre and recovery nurses. Concise but comprehensive chapters from experts in the field cover everything from basic anatomy, physiology and applied physics, through the various methods of maintaining the airway under anaesthesia (supraglottic devices, tracheal intubation, tubes/cuffs, endobronchial and double-lumen tubes) to the problem airway (obstruction by infection, tumour or a foreign body, ENT and maxillo-facial surgery, aspiration, obstetrics, trauma, cervical spine disease, intensive care, the 'lost' airway, extubation and recovery), the paediatric airway, disinfection and cleaning of equipment and finally morbidity, mortality and medico-legal issues. 'Real' clinical scenarios, with patient management questions and model answers, are included throughout, to bring to life some of the key problems encountered in day-to-day practice and enhance the book's utility as a teaching and self-learning tool.

The Manual for the ASEBA school age forms & profiles explains the development, standardization, applications, & profiles for the CBCL/6-18, YSR, & TRF. The Manual also provides reliability & validity data, problem prevalence rates, scale scores, scoring instructions, & answers to common questions.

Investigators critically evaluate the latest information on how anesthetics work at the molecular, cellular, organ, and whole animal level. They review anesthetic effects on memory, consciousness, and movement and spell out in detail both the anatomic structures and physiological processes that are their likely targets, as well as the cellular and molecular mechanisms by which they operate. This text draws together and reviews all the recent research on anesthetic mechanisms, highlighting the precise routes along which these substances operate, and how this deeper understanding will lead to the design of effective drugs free of undesirable side effects.