Sheetal Mane - Böcker

Advanced Biomaterials and Biotechnology in Drug Delivery Systems provides a detailed review of the latest developments in drug delivery biomaterials and technologies. Sections cover historical perspectives and current trends in the field before exploring advances in a range of novel materials, methods, and technologies utilized in targeted drug delivery. The benefits and challenges of key biomaterials - such as polymers, peptides, and nanomaterials - are assessed, as well as rapidly-growing technologies and approaches such as gene therapy, CRISPR-Cas systems, immunotherapy, and biological response modifiers. Regulatory and translational considerations are also covered, enabling readers to make informed decisions in their research.This is a useful reference of use to academics and researchers in the fields of biomaterials, pharmaceutical sciences, and biotechnology. This book may also be of interest to R&D groups developing novel biomaterials and technologies for targeted drug delivery.Covers advanced biomaterials and technologies, including polymers, nanomaterials, peptides, viral vectors, biosensing, and moreUtilizes key case studies to aid in understanding, including topics such as cancer therapy, mRNA vaccines, CRISPR, and biodegradable implantsDetails regulatory and translational aspects that aid in the implementation of novel drug delivery strategies in practice

This book provides a roadmap for creating customized, precision drug delivery systems and advancing personalized medicine by introducing the revolutionary, transformative role of 3D printing technology in medicine. The convergence of advanced manufacturing techniques with the complexities of pharmaceutical formulation has opened new frontiers of innovation, enabling unprecedented precision in drug delivery, tailored therapies, and complex dosage designs. From the creation of personalized drug formulations designed to meet the specific needs of individual patients to the development of complex, multi-functional drug delivery systems, the chapters within this volume explore a wide array of applications. This book is a groundbreaking resource that delves into the transformative role of 3D printing technology in the pharmaceutical field. Offering insights into customized and precision drug delivery systems, it highlights the synergy between advanced manufacturing techniques and pharmaceutical sciences. The book provides a balanced blend of theory and practical applications, presenting a roadmap for researchers and professionals to integrate 3D printing into their pharmaceutical processes. It discusses the role of innovative materials, cutting-edge technologies, and regulatory perspectives while highlighting the challenges and future trends in the field. By offering contributions from distinguished experts, the book serves as a comprehensive reference for understanding the potential of 3D printing to revolutionize drug delivery and advance personalized medicine. Readers will find this volume: Explores cutting-edge 3D printing applications in pharmaceutical sciences, emphasizing precision and innovation;Covers practical and theoretical insights into customized drug delivery systems using 3D printing;Includes detailed case studies and emerging trends for academic and industrial professionals;Features contributions from leading experts and researchers in the field.Audience Pharmaceutical scientists, academics, industrial researchers, formulation chemists, biotechnology professionals, and students specializing in pharmaceutical technology, drug delivery systems, and biopharmaceuticals.

In the rapidly evolving landscape of healthcare, the fusion of technology with pharmaceutical and medical sciences has heralded a new era of innovation and progress. This new volume explores the intricate intersections of FDM technology with pharmaceutical and medical realms. It looks at how FDM technology, a 3D printing technique that uses a heated filament to create complex objects layer by layer, is reshaping healthcare delivery—from the fabrication of personalized drug delivery systems to the creation of intricate anatomical models for surgical planning. The volume explains the fundamental principles of pharmaceutical FDM and then provides in-depth information on materials selection, how FDM can be used in drug development, the role of FDM in the production and design of medical devices, the regulatory landscape, and more. The volume also presents case studies that illustrate the vast potential of this state-of-the-art technology.

This book offers an in-depth exploration of the latest advancements in pharmaceutical excipients by addressing the growing need for sustainable and biocompatible options.The book will covers a wide range of topics, including the extraction and characterization of natural polymers, plant-derived excipients, marine polymers, polysaccharides, proteins, peptides, lipids, gums, and mucilages. It emphasizes their applications in solid dosage forms, controlled release systems, and oral drug delivery. Additionally, the volume discusses bioavailability enhancement and regulatory aspects, making it a vital resource for understanding the potential and challenges of natural excipients in pharmaceuticals. The next edition, Innovative Pharmaceutical Excipients: Biomaterials and Innovations, is also planned and in progress.The main topics covered in this book are crucial for advancing drug delivery technologies, enhancing therapeutic efficacy, and ensuring patient safety. By integrating natural and biomaterial-based excipients, the book addresses the industry's need for more effective, biocompatible, and sustainable solutions. Researchers and professionals will find valuable information on how to overcome the limitations of synthetic excipients, improve drug bioavailability, and develop innovative drug delivery systems. Targeted at pharmaceutical scientists, formulators, researchers, and regulatory professionals, this book is an essential resource for anyone involved in drug development and delivery. It aims to equip readers with the knowledge and tools needed to leverage natural and biomaterial-based excipients for cutting-edge pharmaceutical applications.