Recent Advances in Hemodynamics and Blood Mimetics is a comprehensive compilation of recent developments in biofluid mechanics and biomimetics, covering topics such as numerical modelling, biomedical applications of microfluidics, biomimetic flows, biomedicine applications, and organ-on-chip technology. This book explores blood hemodynamics at different scales, including application to diseases, the relationship between blood biomechanics and rheology, the mimetisation of blood properties at arterial and capillary level, including the study of blood mechanical and flow properties, flow and surface properties of blood cells, mimetisation of these same properties in fluid/particle systems. These concepts are applied to the development of organ-on-chip to improve the replication of biological processes in the human body.The book organizes recent knowledge on hemodynamics and blood mimetics and is representative of the different lines of research in the field, showing an integrated view of blood biomechanics encompassing all scales to create a valuable resource where different research lines can be found and their principles understood.
Handbook of Robotic and Image-Guided Surgery, Second Edition provides an update on state-of-the-art systems and methods for robotic and computer-assisted surgeries. Written by leading researchers from academia and industry, this new edition includes over 700 illustrations, flowcharts, diagrams, and dedicated multimedia content across all chapters.This new edition also includes introductory chapters which discuss the fundamental concepts in robotics and image-guided surgery. Through its coverage of basic concepts and recent advances across all subspecialties, the book serves as a vital and comprehensive reference for engineers, surgeons, and researchers in the life science and healthcare world interested in surgical robotics.Fusing engineering, radiology, and surgical principles into one book, this new edition also includes coverage of new surgical devices and new surgical robotic systems, expanding the number of chapters from 39 to more than 50. Biomedical engineers, mechanical engineers, electrical and computer engineers, medical and engineering students, and surgeons in the field of surgical robotics and image-guided surgery will benefit from this comprehensive reference, written by global experts from across academia and industry.
Advances in 3D and 4D Printing of Medical Robots and Devices presents the most recent innovative breakthroughs in smart manufacturing and biomedical engineering to help enhance knowledge and expertise in 3D/4D printing technologies and advancements in biomedical applications through robotics and medical devices. This book highlights the usage and importance of 3D/4D printing-based prototyping as well as the manufacturing of robotic elements such as energy generators, morphology control, and novel design strategies. This book will help readers to pursue contemporary insights into currently ongoing practices in biomedical and mechatronic engineering including the fabrication of actuators manufacturing; muscles, vibration dampers, bio-inspired structures, pre-surgical and post-surgical tooling, medical assistance robots, drug delivery, microfluidic, and wearable electronics. Academic scholars, manufacturing scientists, and commercial manufacturers of bio-devices and medical robotics will find this book to be useful in adopting competent biomaterials as well as innovative techniques for applications in biomedical engineering.
VOCs available in exhaled human breath are the products of metabolic activity in the body and, therefore, any changes in their control level can be utilized to diagnose specific diseases. More than 1000 VOCs have been identified in exhaled human breath along with the respiratory droplets which provide rich information on overall health conditions. This book cover the introductory information on VOCs, their source in the human body, associated diseases, potential sensing materials used for selective detection, and the advancement in their sensing technology. These VOCs offer great potential as a biomarker for a disease that can be sampled non-invasively from exhaled breath with breath biopsy. However, it is still a great challenge to develop a rapid responsive, highly selective, and sensitive VOC-sensing system. This book analyzes all the challenges and their possible solutions that can be used to achieve target-specific detection and real-time monitoring of the VOC molecules in the exhaled breath. It also covers a detailed discussion of all the sensing materials developed for selective and sensitive detection of VOC molecules and their integration with photonic devices in order to develop miniature technology. It covers various miniature sensing systems that are being exploited in VOC sensing such as interferometer, Bragg grating, microstructured fiber, 3D printed optical sensing systems, etc. The book will also provide an overview of the FEM technique and computation methods used to optimize the optical sensing devices before their practical realization. Photonic sensors for detection of VOC biomarkers aims to provide comprehensive information to early career professionals and boost their existing knowledge in the area of Chemistry and Biomedical Engineering.
Multifunctional Nanostructured Coatings: Biomedical, Environmental, and Energy Applications offers core and advanced information about various nanomaterials and their synthetic approaches to nanostructured coatings. The book focuses on the application of multifunctional nanostructured coatings (MNCs) in the areas of biomedicine, the environment, and energy, and presents the latest advances in the design, preparation, characterization, and fabrication of MNCs. Techniques covered in the book include chemical deposition (including plasma-assisted deposition) and physical deposition methods such as magnetron sputtering, arc evaporation, electron-beam evaporation, and ion-beam sputtering.In addition, the book also explores the use of multifunctional ZnO/TiO2 nanoarray composite coatings, Ta- and Si-doped multifunctional bioactive nanostructured films, in situ-generated titanium-oxo clusters, and silver nanoparticles. It will be useful for researchers working in the areas of materials science, coating technologies, nanotechnology, sustainability, and environmental engineering.
Biomedical and Clinical Cryogenics: Theory, Current Technology Advances, and Future Perspectives presents the complexity of cryogenic engineering applications in both medical and clinical settings. The book demonstrates both a comprehensive and up-to-date understanding of the ongoing new applications and their cutting-edge breakthroughs within the biomedical engineering sector. It contributes to the rapidly emerging and expanding field of cryogenics by emphasizing the complexity of associated mechanisms and interactions. In six chapters, this book collects, investigates, and critically discusses the state-of-the-art cryogenic practices, along with the challenges and perspectives of the most common applications. It not only provides an insight into the origins and evolution of cryogenics, but also presents the biomedical engineering applications of cryogenics like cryosurgery, cryotherapy, and cryopreservation. By using cryogenics sciences, new milestones in medicine and human-life expectancy can be significantly increased. Since this is highly interdisciplinary content, this book is a valuable resource for biomedical engineers, health professionals, scientists and researchers, students, and all those who wish to broaden their knowledge in the allied field.
Federated Learning for Medical Imaging: Principles, Algorithms, and Applications gives a deep understanding of the technology of federated learning (FL), the architecture of a federated system, and the algorithms for FL. It shows how FL allows multiple medical institutes to collaboratively train and use a precise machine learning (ML) model without sharing private medical data via practical implantation guidance. The book includes real-world case studies and applications of FL, demonstrating how this technology can be used to solve complex problems in medical imaging. The book also provides an understanding of the challenges and limitations of FL for medical imaging, including issues related to data and device heterogeneity, privacy concerns, synchronization and communication, etc.This book is a complete resource for computer scientists and engineers, as well as clinicians and medical care policy makers, wanting to learn about the application of federated learning to medical imaging.
In an era where Artificial Intelligence (AI) is revolutionizing healthcare, Explainable AI in Healthcare Imaging for Precision Medicine addresses the critical need for transparency, trust, and accountability in AI-driven medical technologies. As AI becomes an integral part of clinical decision-making, especially in imaging and precision medicine, the question of how AI reaches its conclusions grows increasingly significant. This book explores how Explainable AI (XAI) is transforming healthcare by making AI systems more interpretable, reliable, and transparent, empowering clinicians and enhancing patient outcomes.Through a comprehensive examination of the latest research, real-world case studies, and expert insights, this book delves into the application of XAI in medical imaging, disease diagnosis, treatment planning, and personalized care. It discusses the technical methodologies behind XAI, the challenges and opportunities of its integration into healthcare, and the ethical and regulatory considerations that will shape the future of AI-assisted medical decisions.Key areas of focus include the role of XAI in improving diagnostic accuracy in fields such as radiology, pathology, and genomics and its potential to enhance collaboration between AI systems, healthcare professionals, and patients. The book also highlights practical applications of XAI in personalized medicine, showing how explainable models help tailor treatments to individual patients, and discusses how XAI can contribute to reducing bias and improving fairness in medical decision-making.Written by leading experts in AI, healthcare, and precision medicine, Explain[S3G1] able AI in Healthcare Imaging for Precision Medicine is an essential resource for researchers, clinicians, students, and policymakers. Whether you are looking to stay at the forefront of AI innovations in healthcare or seeking to understand how explainability can build trust in AI systems, this book provides the insights and knowledge needed to navigate the evolving landscape of AI in medicine. It invites readers to explore how XAI can revolutionize healthcare and precision medicine, shaping a future where AI is both powerful and trustworthy.
Necrobotics for Healthcare Applications and Management delves into the emerging area of necrobotics and its implications for healthcare. Exploring the convergence of robotics, technology, and healthcare, the book presents leading-edge research, practical implementations, and ethical considerations. It bridges a significant gap in healthcare literature, furnishing a contemporary and comprehensive perspective on necrobotics. Highlighting its distinct applications, management nuances, and ethical dimensions in the domain of medical robotics, the book equips readers with an in-depth grasp of this evolving field. It offers insights into technological intricacies, practical utilization, and ethical guidelines. Through real-world case studies and exemplar practices, it vividly demonstrates successful necrobotics deployments while addressing integration challenges. The book facilitates adept navigation of necrobotics complexities, spur innovation, enhance patient outcomes, and contribute to healthcare evolution. Catering to the distinct information requisites and daily obstacles encountered by engineers, healthcare practitioners, and researchers, the book offers extensive insights into necrobotics technologies, real-life case studies, and ethical reflections. It stands as a valuable resource for individuals striving to harness necrobotics' potential for efficacious healthcare solutions.
Innovations in Biomedical Engineering: Trends in Scientific Advances and Application addresses the burgeoning demand for a comprehensive resource that not only showcases the latest advancements in this dynamic field but also shows how these innovations can be effectively translated into real-world applications. In essence, this book seeks to act as a bridge: connecting the discoveries, research, and innovations in biomedical engineering to their tangible, real-world applications.