Inorganic Frameworks as Smart Nanocarriers for Drug Delivery brings together recent research in the area of inorganic frameworks for drug delivery. Different types of nanocarriers are presented and discussed in detail, providing an up-to-date overview on inorganic nanoparticles with pharmaceutical applications. Written by a diverse range of international academics, this book is a valuable reference resource for researchers in biomaterials, the pharmaceutical industry, and those who want to learn more about the current applications of inorganic smart nanocarriers. - Includes assembly methods for a variety of smart nanocarrier systems, also showing how they are applied - Highlights how metal-oxide nanoparticles are effectively used in drug delivery - Assesses the pros and cons of different metallic nanomaterials as drug carriers

Organic Materials as Smart Nanocarriers for Drug Delivery presents the latest developments in the area of organic frameworks used in pharmaceutical nanotechnology. An up-to-date overview of organic smart nanocarriers is explored, along with the different types of nanocarriers, including polymeric micelles, cyclodextrins, hydrogels, lipid nanoparticles and nanoemlusions. Written by a diverse range of international academics, this book is a valuable reference for researchers in biomaterials, the pharmaceutical industry, and those who want to learn more about the current applications of organic smart nanocarriers. - Explores the most recent molecular- and structure-based applications of organic smart nanocarriers in drug delivery - Highlights different smart nanocarriers and assesses their intricate organic structural properties for improving drug delivery - Assesses how molecular organic frameworks lead to more effective drug delivery systems

Theory and Applications of Nonparenteral Nanomedicines presents thoroughly analysed data and results regarding the potential of nanomedicines conceived by diverse non-parenteral routes. In the context of nanotechnology-based approaches, various routes such as oral, pulmonary, transdermal, delivery and local administration of nanomedicine have been utilized for the delivery of nanomedicine. This book discusses the non-parenteral application of nanomedicine, its regulatory implications, application of mucus penetrating nanocarrier, and detailed chapters on development of nanomedicines developed for drug delivery by various route. Beginning with a brief introduction to the non-parenteral delivery of nanomedicine and the safety and regulatory implications of the nanoformulations, further chapters discuss the physiology of the biological barriers, the specificity of the nanocarriers as well as their multiple applications. Theory and Applications of Nonparenteral Nanomedicines helps clinical researchers, researchers working in pharmaceutical industries, graduate students, and anyone working in the development of non-parenteral nanomedicines to understand the recent progress in the design and development of nanoformulations compatible with non-parenteral applications. - Contains a comprehensive review of non-parenteral nanomedicines - Provides analysis of non-parenteral methods of nanomedicines including regulatory implications and future applications - Explores a wide range of promising approaches for non-parenteral drug delivery using the latest advancement in nanomedicine written by experts in industry and academia

Magnetic Nanoparticles in Nanomedicine provides readers with the fundamental theories and principles of magnetic materials, the synthesis and surface functionalization strategies of MNPs, and the standard techniques for characterizing physicochemical properties of MNPs. Other sections review MNP-based therapies such as magnetic hyperthermia therapy, drug/gene delivery, and magnetic neurostimulation and cover MNP-based in vitro and in vivo disease diagnosis, respectively, including techniques such as magnetoresistive (MR), nuclear magnetic resonance (NMR), magnetic particle spectroscopy (MPS) biosensing platforms, magnetic resonance imaging (MRI), and magnetic particle imaging (MPI). Final chapters address biocompatibility and safety issues in applying MNPs to in vivo biomedical applications, including coverage of the toxicity of MNPs to human tissues, the immune responses of the human body to these particles, as well as blood circulation time of MNPs. - Provides a valuable tool for academics and clinicians, pushing the frontiers of magnetic-based early-stage disease diagnosis and screening - Clearly explains the synthesis, functionalization, and biocompatibility of magnetic nanoparticles - Describes micromagnetic simulation, a valuable tool for predicting the properties of magnetic nanomaterials

ADVANCES in NOVEL FORMULATIONS for DRUG DELIVERY The 27 chapters describe novel strategies for drug/nutraceutical delivery and embrace the development of formulations with herbal ingredients, while also highlighting disease therapeutics. Drug delivery technology has witnessed many advancements purported to cater to the customized needs of its ultimate beneficiaries—the patients. Today, dosage forms are not confined to conventional tablets, capsules, or injectables, but have evolved to cover novel drug carriers such as particulates, vesicles, and many others. Nanotechnological advancements have played a major role in this paradigm shift in ways of delivering active pharmaceutical ingredients. A new dimension in the use of food as medicine has also gained prominence in recent years. A portmanteau of nutrition and pharmaceuticals is “nutraceuticals,” also known as functional foods and dietary supplements. The technologies which were earlier included in drug delivery have been attempted for the delivery of nutraceuticals as well. Herbal actives have received increased attention due to their low risk-to-benefit ratio. The field of drug delivery is quite dynamic in nature, as witnessed by its evolution from conventional dosage forms to nanotechnology-assisted drug products. A variety of formulations via different drug delivery routes have been developed to treat/cure/mitigate diseases or disorders. This book, comprising of 27 chapters, is a thorough compilation of information relevant to drug delivery systems with an emphasis on products based on nanotechnology. Audience Researchers, scientists, industry professionals, formulators and product developers, regulatory agencies in a variety of settings including novel drug delivery research laboratories, pharmaceutical, and pharmacy industries, biomedical sciences, food and nutraceuticals manufacturers, and nanotechnology.

Nanomedicine in Translational Research: Status and Future Challenges harnesses the current developments and future directions of diagnostic and therapeutic solutions in clinical scenarios. This book integrates nanomedicine and biomaterials to develop healthcare technology for improved patient care and clinical practices, through applications using theranostics, biomaterials, 3-D printing, regenerative medicines, and nanosystems. Those in this multidisciplinary field will need to improve procedures and protocols, as well as regulatory guidelines and their clinical implications. This book will be highly useful as it is written by experts in the field for researchers working in the areas of nanotechnology, biomaterials, drug delivery, and pharmaceuticals for chronic diseases. - Focuses on the pillars contributing to the global healthcare crisis: geopolitical changes, overpopulation/migration, and climate change. - Includes personal interviews with many world leaders in different areas along with the authors' hands-on experience on healthcare, especially during the COVID-19 pandemic, for drafting the contents that confirm advanced healthcare. - Provides a broad and multidisciplinary understanding of healthcare, allowing the readers to understand their role and empower them to take initiatives to emerging solutions.

Smart Nanocontainers explores the fundamental concepts and emerging applications of nanocontainers in biomedicine, pharmaceuticals and smart materials. In pharmaceuticals, nanocontainers have advantages over their micro-counterparts, including more efficient drug detoxification, higher intracellular uptake, better stability, less side effects and higher biocompatibility with tissue and cells. In materials science, such as coating technology, they help by making coatings smarter, stronger and more durable. This important reference will help anyone who wants to learn more on how nanocontainers are used to provide the controlled release of active agents, including their applications in smart coatings, corrosion, drug delivery, diagnosis, agri-food and gas storage. - Discusses how the molecular design of nanocarriers can be optimized to increase performance - Explores how nanocarriers are being used to produce a new generation of active coatings - Explains how nanocarriers are being used to deliver more effective nanoscale drug delivery