Biomedical Visualization – serie

This edited book explores the use of technology to enable us to visualize the life sciences in a more meaningful and engaging way. It will enable those interested in visualization techniques to gain a better understanding of the applications that can be used in visualization, imaging and analysis, education, engagement and training. The reader will also be able to learn about the use of visualization techniques and technologies for the historical and forensic settings. The reader will be able to explore the utilization of technologies from a number of fields to enable an engaging and meaningful visual representation of the biomedical sciences. We have something for a diverse and inclusive audience ranging from healthcare, patient education, animal health and disease and pedagogies around the use of technologies in these related fields. The first four chapters cover healthcare and detail how technology can be used to illustrate emergency surgical access to the airway, pressure sores, robotic surgery in partial nephrectomy, and respiratory viruses.  The last six chapters in the education section cover augmented reality and learning neuroanatomy, historical artefacts, virtual reality in canine anatomy, holograms to educate children in cardiothoracic anatomy, 3D models of cetaceans, and the impact of the pandemic on digital anatomical educational resources.

This edited book explores the use of technology to enable us to visualize the life sciences in a more meaningful and engaging way. It will enable those interested in visualization techniques to gain a better understanding of the applications that can be used in visualization, imaging and analysis, education, engagement and training. The reader will also be able to learn about the use of visualization techniques and technologies for the historical and forensic settings. The reader will be able to explore the utilization of technologies from a number of fields to enable an engaging and meaningful visual representation of the biomedical sciences. We have something for a diverse and inclusive audience ranging from healthcare, patient education, animal health and disease and pedagogies around the use of technologies in these related fields. The first four chapters cover healthcare and detail how technology can be used to illustrate emergency surgical access to the airway, pressure sores, robotic surgery in partial nephrectomy, and respiratory viruses.  The last six chapters in the education section cover augmented reality and learning neuroanatomy, historical artefacts, virtual reality in canine anatomy, holograms to educate children in cardiothoracic anatomy, 3D models of cetaceans, and the impact of the pandemic on digital anatomical educational resources.

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.

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.

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 emergingand 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.

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 emergingand 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.

This edited book explores the breadth of approaches undertaken by scientists, artists and communicators in their crucial role making science accessible, engaging and impactful. Contemporary approaches in science illustration and visualization include a variety of creative methodologies that are valuable for effective communication, teaching, learning and professional practice. These range in method from anatomical drawings used in medical curricula, to 2D animations and editorial illustrations available in the public realm. They also include unexpected approaches such as the use of tabletop board games, comics and collage in understanding our bodies, emergent health threats and cutting-edge science developments. If you are a scientist seeking to enhance your ability to communicate your research or an artist interested in biomedical visualization, this volume serves as an introduction to contemporary approaches in science illustration and communication. By understanding the creative methods and techniques employed in this field, we can collectively work towards fostering a deeper appreciation of art in science, and continue to captivate and inspire audiences worldwide.

This edited book explores the breadth of approaches undertaken by scientists, artists and communicators in their crucial role making science accessible, engaging and impactful. Contemporary approaches in science illustration and visualization include a variety of creative methodologies that are valuable for effective communication, teaching, learning and professional practice. These range in method from anatomical drawings used in medical curricula, to 2D animations and editorial illustrations available in the public realm. They also include unexpected approaches such as the use of tabletop board games, comics and collage in understanding our bodies, emergent health threats and cutting-edge science developments. If you are a scientist seeking to enhance your ability to communicate your research or an artist interested in biomedical visualization, this volume serves as an introduction to contemporary approaches in science illustration and communication. By understanding the creative methods and techniques employed in this field, we can collectively work towards fostering a deeper appreciation of art in science, and continue to captivate and inspire audiences worldwide.

This edited volume encompasses chapters on novel and innovative research in the applications of leading digital technologies in an accessible and engaging way. By utilising cutting edge and ever progressive technology in visualization, it will enhance our understanding and application in our everyday lives.This volume shows how we can use Extended Reality, 3D animations and serious games to benefit the learner, educator, clinician, patient, parent and carer. Visualization techniques like Virtual, Augmented and Mixed Reality and show how they can be utilised to improve training and understanding of anatomy, surgery, and clinical assessment. This is covered specifically for emergency practitioners in enhancing their understanding of ECG’s for potential myocardial infarction by using augmented reality. From a translational medicine perspective and pre-operative pediatric surgical planning, the benefits of augmented reality are examined as to what might be found intra-operatively from imaging techniques.Educational applications of digital technologies using serious games and Extended Reality are examined. We show how Mixed Reality can aid understanding in cellular anatomy for our learners and researchers alike. We also show how serious games can have applications in diverse areas like parasite infections and neuroanatomy education and training.Finally, from a clinical perspective, the use of 3D animations and their applications is discussed for vertebral fractures and increasing parent/carer awareness through interactive applications. Also, the use of 3D animations in cerebral magnetic resonance angiography for global education highlights the great benefits of these tools and technologies.There is something for the researcher, clinician, educator, patient, and carer as we explore novel technologies. These are applied locally, nationally and globally as we advance our understanding of the world changing influence that digital technologies have on our day-to-day life.

This edited volume encompasses chapters on novel and innovative research in the applications of leading digital technologies in an accessible and engaging way. By utilising cutting edge and ever progressive technology in visualization, it will enhance our understanding and application in our everyday lives.This volume shows how we can use Extended Reality, 3D animations and serious games to benefit the learner, educator, clinician, patient, parent and carer. Visualization techniques like Virtual, Augmented and Mixed Reality and show how they can be utilised to improve training and understanding of anatomy, surgery, and clinical assessment. This is covered specifically for emergency practitioners in enhancing their understanding of ECG’s for potential myocardial infarction by using augmented reality. From a translational medicine perspective and pre-operative pediatric surgical planning, the benefits of augmented reality are examined as to what might be found intra-operatively from imaging techniques.Educational applications of digital technologies using serious games and Extended Reality are examined. We show how Mixed Reality can aid understanding in cellular anatomy for our learners and researchers alike. We also show how serious games can have applications in diverse areas like parasite infections and neuroanatomy education and training.Finally, from a clinical perspective, the use of 3D animations and their applications is discussed for vertebral fractures and increasing parent/carer awareness through interactive applications. Also, the use of 3D animations in cerebral magnetic resonance angiography for global education highlights the great benefits of these tools and technologies.There is something for the researcher, clinician, educator, patient, and carer as we explore novel technologies. These are applied locally, nationally and globally as we advance our understanding of the world changing influence that digital technologies have on our day-to-day life.

This edited book contains chapters that describe bespoke three-dimensional (3D) printing aimed at democratizing anatomy education by providing open-source scans for download and printing as 3D models. The long history of anatomical models as educational resources is explored in fascinating detail, from wax models through to a range of cutting-edge 3D printers. In a related chapter, a veterinary anatomy educator describes a transformation in teaching and learning methods in veterinary education using Augmented Reality (AR), Virtual Reality (VR) and 3D visualization methods like CT or MRI images which can be used to reconstruct complete 3D virtual models, as well as 3D prints from these reconstructed scans.The first digital, cloud-based human skeletal repository in southern Africa is an extensive and categorized ‘bone library’ globally accessible for use in education and research. A chapter details a digital protocol for the bioprinting of a 3D acellular dermal scaffold (ADS) for use in wound healing, as an alternative to skin grafting for secondary intention wound healing. A chapter offers an extensive guide to applied anatomy for acupuncture and is provided in 4 parts viz, upper limb, lower limb, trunk, head and neck. Each part of the chapter is replete with beautiful cadaveric images including annotations that relate specifically to information in the text. We look at vertebral artery variations and its role in clinical conditions, current insights into polycystic ovarian syndrome, and visual interpretation using multiplex immunoassay of serum samples.This book will appeal to educators of both human and animal anatomy who have a keen interest and focus on the use of bespoke 3D printing, augmented and virtual reality, as well as acupuncture practitioners, clinicians, regenerative medicine specialists, surgeons, tissue engineers and artists.

This edited book contains chapters that describe bespoke three-dimensional (3D) printing aimed at democratizing anatomy education by providing open-source scans for download and printing as 3D models. The long history of anatomical models as educational resources is explored in fascinating detail, from wax models through to a range of cutting-edge 3D printers. In a related chapter, a veterinary anatomy educator describes a transformation in teaching and learning methods in veterinary education using Augmented Reality (AR), Virtual Reality (VR) and 3D visualization methods like CT or MRI images which can be used to reconstruct complete 3D virtual models, as well as 3D prints from these reconstructed scans.The first digital, cloud-based human skeletal repository in southern Africa is an extensive and categorized ‘bone library’ globally accessible for use in education and research. A chapter details a digital protocol for the bioprinting of a 3D acellular dermal scaffold (ADS) for use in wound healing, as an alternative to skin grafting for secondary intention wound healing. A chapter offers an extensive guide to applied anatomy for acupuncture and is provided in 4 parts viz, upper limb, lower limb, trunk, head and neck. Each part of the chapter is replete with beautiful cadaveric images including annotations that relate specifically to information in the text. We look at vertebral artery variations and its role in clinical conditions, current insights into polycystic ovarian syndrome, and visual interpretation using multiplex immunoassay of serum samples.This book will appeal to educators of both human and animal anatomy who have a keen interest and focus on the use of bespoke 3D printing, augmented and virtual reality, as well as acupuncture practitioners, clinicians, regenerative medicine specialists, surgeons, tissue engineers and artists.

This edited book explores digital visualization as a tool to communicate complex and often challenging biomedical content in an accessible and engaging way. The reader will learn how current visualization technology can be applied to a wide range of biomedical fields to benefit the learning of students and enhance the public understanding of science.   The focus of this volume will be on the innovative use of digital visualization (2D or 3D) in biomedical education and public engagement. This includes medical imaging (i.e., magnetic resonance imaging and computed tomography) as well as other digital imaging techniques such as laser scanning. It also covers the use of state-of-the-art visualization tools (i.e., augmented and virtual reality, animations and 3D printing) and the integration of 3D models of anatomical structures into serious computer games.This book will appeal to educators, researchers and students in life science subjects as well as to healthcare professionals and designers of digital learning resources. The book will be a source of inspiration for any reader who is interested in using digital visualization as a meaningful and engaging communication tool for biomedical content, ranging from the anatomy and function of organs to the mechanisms of diseases and their prevention.

This edited book explores digital visualization as a tool to communicate complex and often challenging biomedical content in an accessible and engaging way. The reader will learn how current visualization technology can be applied to a wide range of biomedical fields to benefit the learning of students and enhance the public understanding of science.   The focus of this volume will be on the innovative use of digital visualization (2D or 3D) in biomedical education and public engagement. This includes medical imaging (i.e., magnetic resonance imaging and computed tomography) as well as other digital imaging techniques such as laser scanning. It also covers the use of state-of-the-art visualization tools (i.e., augmented and virtual reality, animations and 3D printing) and the integration of 3D models of anatomical structures into serious computer games.This book will appeal to educators, researchers and students in life science subjects as well as to healthcare professionals and designers of digital learning resources. The book will be a source of inspiration for any reader who is interested in using digital visualization as a meaningful and engaging communication tool for biomedical content, ranging from the anatomy and function of organs to the mechanisms of diseases and their prevention.

This book provides a unique opportunity to explore the current and future state of accessibility, inclusivity, and diversity across higher education and beyond. Although these chapters primarily focus on the issues and resulting adaptations seen in biomedicine, the results and observations are applicable throughout education and the workplace.  Section 1 focuses on what it means to create accessible environments for both education and employment. Here the pitfalls of mandatory attendance across education will be addressed and ideas for building belonging amongst students shared. In addition, ways to use play-based learning to support student revision and to make psychology accessible to medical students will be discussed. Section 2 explores inclusive practices in anatomy education and research, with a toolkit for both early-career and established academics. The pedagogy, psychology, and culture of asking and answering questions in education will also be explored to support educators aiming to create inclusive learning environments.  Section 3 focuses on ways in which diversity can be embraced in the educational, medical, and public sectors. Chapters include the use of human remains as teaching aids to promote the concept of the body as a spectrum, and the use of television media to create immersive learning environments.  This book is an essential guide to creating accessible, inclusive, and diverse learning environments for both the early career and experienced academic.

This book provides a unique opportunity to explore the current and future state of accessibility, inclusivity, and diversity across higher education and beyond. Although these chapters primarily focus on the issues and resulting adaptations seen in biomedicine, the results and observations are applicable throughout education and the workplace.  Section 1 focuses on what it means to create accessible environments for both education and employment. Here the pitfalls of mandatory attendance across education will be addressed and ideas for building belonging amongst students shared. In addition, ways to use play-based learning to support student revision and to make psychology accessible to medical students will be discussed. Section 2 explores inclusive practices in anatomy education and research, with a toolkit for both early-career and established academics. The pedagogy, psychology, and culture of asking and answering questions in education will also be explored to support educators aiming to create inclusive learning environments.  Section 3 focuses on ways in which diversity can be embraced in the educational, medical, and public sectors. Chapters include the use of human remains as teaching aids to promote the concept of the body as a spectrum, and the use of television media to create immersive learning environments.  This book is an essential guide to creating accessible, inclusive, and diverse learning environments for both the early career and experienced academic.

Anatomy is intrinsically a three-dimensional and visual discipline. Anatomical education is therefore primarily delivered using physical and digital three-dimensional visual approaches to support student understanding of anatomy, including human body donor specimens and technology-enhanced learning resources. The Trans-European Pedagogic Anatomy Research Group (TEPARG) was founded in 2003 to promote scholarly, research-informed, and evidence-based approaches to the design and implementation of anatomical education. TEPARG brings together enthusiastic anatomy teachers and pedagogic researchers from across Europe and beyond to share good practice and create new projects in support of anatomical education.The work presented in this volume demonstrates careful consideration by the authors of several key areas within the current complex landscape of international anatomical education. This volume is presented in two subthemes, with the first section concerning broad considerations of modern anatomy curricula in England, Scotland, Wales, and Austria, and the second section involving discussion of pedagogic innovations for the delivery of anatomical education to learners and to the wider public in Italy, Spain, Australia, and the United Kingdom.The work presented in this volume will have implications for anatomical educators and pedagogic researchers in the anatomical sciences who are seeking to develop their own anatomy curricula, and to implement effective, evidence-based, and research informed visualization strategies and innovations into their teaching.

Anatomy is intrinsically a three-dimensional and visual discipline. Anatomical education is therefore primarily delivered using physical and digital three-dimensional visual approaches to support student understanding of anatomy, including human body donor specimens and technology-enhanced learning resources. The Trans-European Pedagogic Anatomy Research Group (TEPARG) was founded in 2003 to promote scholarly, research-informed, and evidence-based approaches to the design and implementation of anatomical education. TEPARG brings together enthusiastic anatomy teachers and pedagogic researchers from across Europe and beyond to share good practice and create new projects in support of anatomical education.The work presented in this volume demonstrates careful consideration by the authors of several key areas within the current complex landscape of international anatomical education. This volume is presented in two subthemes, with the first section concerning broad considerations of modern anatomy curricula in England, Scotland, Wales, and Austria, and the second section involving discussion of pedagogic innovations for the delivery of anatomical education to learners and to the wider public in Italy, Spain, Australia, and the United Kingdom.The work presented in this volume will have implications for anatomical educators and pedagogic researchers in the anatomical sciences who are seeking to develop their own anatomy curricula, and to implement effective, evidence-based, and research informed visualization strategies and innovations into their teaching.

This book opens with a broad survey of how AI and biomedical visualization are reshaping medicine today. It defines the global challenges—workforce shortages, exploding data volumes, and rising costs—that make AI’s intervention critical, and introduces the core technologies (machine learning, virtual reality, telemedicine) driving innovation across diagnostic, educational, and delivery systems. By framing these advances within real world pressures, the introduction establishes why a holistic, interdisciplinary treatment of AI’s role in healthcare is both timely and essential.Delving deeper, the text is organized into ten thematically linked chapters. It begins by charting the anatomy of medical data and the visualization tools that make complex information interpretable, then moves into machine learning approaches for imaging and AI driven diagnostic platforms. Subsequent chapters explore immersive virtual reality simulations for clinician training, the ethical and regulatory imperatives of AI adoption, and the evolution of AI in medical education and surgical simulation. The book also examines frontier applications—autonomous health systems in spaceflight, AI supported care in low resource settings, and strategies for workforce adaptation—before concluding with a forward looking synthesis of best practices and future directions.This volume is crafted for a diverse readership—clinicians seeking to integrate AI tools, researchers probing new algorithms, healthcare administrators designing policy, and students building interdisciplinary expertise. By combining case studies, evidence based analyses, and practical guidance, it equips readers to navigate AI’s complexities responsibly, optimize clinical workflows, and ultimately improve patient outcomes. Whether you’re on the front lines of care or shaping the next generation of medical innovation, this book delivers the insights and frameworks needed to harness AI’s transformative potential.

Neuroanatomy and visualization technologies have experienced transformative progress in recent years, offering unprecedented insights into the intricate architecture and functions of the central nervous system. This book provides a structured overview of these developments, bridging classical approaches with modern innovations in neuroanatomy and neurohistology. By presenting both foundational knowledge and emerging methodologies, it offers a well-rounded understanding of this rapidly evolving field.This book is organized into thematic chapters that guide the reader from basic principles to advanced techniques. It begins with a concise introduction to neuroanatomy and neurohistology, followed by a thorough examination of traditional visualization methods. Building on this foundation, subsequent chapters explore state-of-the-art imaging technologies, such as high-resolution MRI, digital brain mapping, and computational modeling. Special focus is given to emerging tools in quantitative neurohistology and neuroimaging, highlighting their practical applications in both research and clinical contexts. The text also discusses recent breakthroughs that enhance diagnostic precision and therapeutic strategies for neurological disorders.Designed for students, educators, researchers, and clinical professionals, this book offers a valuable resource for those seeking to deepen their understanding of neuroanatomical visualization. By integrating contemporary advances with real-world applications, it equips readers with the knowledge needed to navigate and contribute to the future of neuroscience research and clinical neuroimaging.