Microscopy Techniques For Biomedical Education And Healthcare Practice

This edited book has a strong focus on advances in microscopy that straddles research, medical education and clinical practice. These advances include the shift in power from conventional to digital microscopy. The first section of this book covers imaging techniques and morphometric image analysis with its applications in biomedicine using different microscopy modes. Chapters highlight the rich development of fluorescence methods and technologies; particle tracking techniques with applications in biomedical research and nanomedicine; the way in which visualizations have revolutionized taxonomy from gross anatomy to genetics; and the psychology of perception and how it affects our understanding of cells and tissues. The book’s first section concludes by exploring the use of CT modalities to evaluate anterior deformities in craniosynostosis. In the second section of the book, chapters on anatomical and cell biology education explore the history of anatomical models and their use in educational settings. This includes examples in 3D printing and functional human anatomical models that can be created using easily available resources and the use of biomedical imaging in visuospatial teaching of anatomy; the novel use of ultrasound in medical education and practice; and skill acquisition in histology education using a flowchart called a ‘decision tree’. This book will appeal to histologists, microscopists, cell biologists, clinicians and those involved in anatomical education and biomedical visualization, as well as students in those respective fields.

The second volume of the series Manuals in Biomedical Research, this book is aimed to be both a concise introduction to the diverse field of microscopy and a practical guide those who require the use of microscopic for methods in their research. It provides young as well as experienced scientists a state-of-the-art multidisciplinary overview of microscopic techniques, covering all the major microscopy fields in biomedical sciences and showing their application in evaluating samples ranging from molecules to cells and tissues.Microscopy has revolutionized our understanding of biological events. Within the last two decades, microscopic techniques have provided insights into the dynamics of biological processes that regulate such events. Biological discovery, to a large extent, depends on advances in imaging techniques and various microscopic techniques have emerged as central and indispensable tools in the biomedical sciences.The four authors bring with them extensive experiences spanning across disciplines such as Microbiology, Molecular and Cell Biology, Tissue Engineering, Biomedical and Regenerative Medicine and so forth, reinforcing the fact that microscopy has proven useful in countless investigations into the mysteries of life.

This book contains subjects by authors with a fresh, exciting and extensive focus within the medical humanities, offering the reader chapters which include the history of medical illustration, Graphic Medicine as a vehicle for the expression of humanistic dimensions of healthcare, equitable and ethical medical illustrations, as well as novel, art-based approaches in anatomical education. Authors consider the role of visual narratives in medical and scientific illustration, the unique affordances of the comics medium, the history of comics as a form of medical and scientific visualization, and the role of comics as didactic tools and as vehicles for the expression of the humanistic dimensions of healthcare. A chapter considers ethical and equitable implications in global healthcare practice, and highlights the work currently being undertaken to address inappropriate and problematic depictions of people in global health visualizations. This will inform the reader of emerging and current thinking about visual communication and the use of images in the public domain, as well as in the healthcare and education sectors. Novel approaches in anatomical education include the benefits of three-dimensional anatomy models made of felt, visual analogies as a method to enhance students’ learning of histology, the use of the hands for learning anatomy, and visualizing anatomy through art, archaeology and medicine. This book will appeal to readers who have an interest in the medical humanities, Graphic Medicine, and ethical medical and anatomical illustrations. These include academic and non-academic readers, medical students, medical educators, clinicians, health-care workers, as well as policy makers.

Our increased understanding of health and disease coupled with major technologic advances has resulted in rapid and significant changes in the practice of medicine. How we prepare physicians for clinical practice 20, 30, or 40 years from now is of paramount importance to medical educators, to the future professionals, and to society at large. Implementing Biomedical Innovations into Health, Education, and Practice delves into this important question, discussing the effects of precision medicine, bioinformatics, biologic and environmental forces, and societal shifts on the physician’s approach to diagnosis and therapy. The author interviewed world-renowned physicians, medical educators, healthcare leaders, and research professionals—their insights and quotes are woven throughout the narrative. Professionally illustrated, this relevant resource is a must-have for all medical professionals who incorporate technology and biomedical innovations in their research and clinical practice. It encourages thoughtful analysis on adapting and developing the foundational knowledge, skills, and aptitudes of future physicians and other healthcare professionals, and it belongs in your library. “Having completed deanship at one of America’s leading medical schools, Jim Woolliscroft produces an insightful, contemplative projection of the likely skill and behavioral needs of the physician workforce for the mid-21st century...The result is a playbook for physician training that responds effectively to the daunting challenges faced in the coming transformation of the role of physicians in protecting the health of our nation. James L. Madara, MD, CEO, American Medical Association “Dr. Woolliscroft’s provocative new book will become must reading for all who are serious about educating the next generation of physicians and health care leaders. Leveraging his own experience as a consummate educator and interviews with numerous thought leaders, he identifies the uncertainties, challenges and disruptions to the practice of medicine in the decades ahead. The implications and imperatives for the coming generations of physicians are compelling and of critical importance for care givers, policy makers, and most pointedly educators in the U.S. and around the world. Gary S. Kaplan MD, Chairman and CEO, Virginia Mason Health System “This ambitious masterpiece, by one of the leading medical educators of our time, fully captures the ongoing changes and disruptions in medicine today, and how they will influence the care of patients and the training of young physicians in the future. Eric Topol, MD, Executive Vice President, Scripps Research, Author of Deep Medicine Discusses likely technologic disruptors: sensors, AI, machine learning, and robotics Highlights microbiota, genetics, molecular biology, gene therapy, and regenerative and precision medicine as likely disruptors Presents an intriguing set of scenarios depicting the life of future physicians

Case studies and other examples enrich the text, firmly rooting it in the context of clinical and biomedical practice. --Book Jacket.

Biomedical scientists are the foundation of modern healthcare, from cancer screening to diagnosing HIV, from blood transfusion for surgery to food poisoning and infection control. Without biomedical scientists, the diagnosis of disease, the evaluation of the effectiveness of treatment, and research into the causes and cures of disease would not be possible. The Fundamentals of Biomedical Science series has been written to reflect the challenges of practicing biomedical science today. It draws together essential basic science with insights into laboratory practice to show how an understanding of the biology of disease is coupled to the analytical approaches that lead to diagnosis. Assuming only a minimum of prior knowledge, the series reviews the full range of disciplines to which a Biomedical Scientist may be exposed - from microbiology to cytopathology to transfusion science. A core text in the Fundamentals of Biomedical Science series, Biomedical Science Practice gives a comprehensive overview of the key laboratory techniques and professional skills that students need to master. The text is supported throughout with engaging clinical case studies, written to emphasize the link between theory and practice, providing a strong foundation for beginning biomedical science students.

The Handbook of Biomedical Nonlinear Optical Microscopy provides comprehensive treatment of the theories, techniques, and biomedical applications of nonlinear optics and microscopy for cell biologists, life scientists, biomedical engineers, and clinicians. The chapters are separated into basic and advanced sections, and provide both textual and graphical illustrations of all key concepts. The more basic sections are aimed at life scientists without advanced training in physics and mathematics, and tutorials are provided for the more challenging sections. The first part of the Handbook introduces the historical context of nonlinear microscopy. The second part presents the nonlinear optical theory of two- and multiphoton excited fluorescence (TPE, MPE) spectroscopy, second and third harmonic generation (SHG, THG) spectroscopy, and coherent anti-Stokes Raman spectroscopy (CARS). The third part introduces modern microscopic and spectroscopic instrumentation and techniques that are based on nonlinear optics. The fourth part provides key applications of nonlinear microscopy to the biomedical area: neurobiology, immunology, tumor biology, developmental biology, dermatology, and cellular metabolism. There are also chapters on nonlinear molecular probes, cellular damage, and nanoprocessing.