Osteosarcoma is a rare bone tumor that has a high incidence among children and young adults. Despite recent therapeutic developments, osteosarcoma still presents major hurdles to achieving successful results, mainly due to the presence of multi-drug-resistant cells. This monograph primarily aims to provide information about the basic science behind the treatment of osteosarcoma along with experimental results for a novel formulation that overcomes multidrug resistance, and therefore, may serve as a viable treatment option. The book starts with an updated and concise guide to the pathophysiology of the disease, while also introducing the reader to new therapies and materials (specifically chitosan, polyethyleneimine, poloxamers, poloxamines, and Pluronics®) used in the treatment process along with the aims of the experiments present subsequently. Next, the book documents the materials and methods used in developing polymeric micelles for delivering drugs to osteosarcoma sites. By explaining the basics of nanomedicine as a starting point, readers will understand how polymeric micelles act as facilitators of drug transport to cancer cells, and how one can synthesize a small stable micelle (by creating derivatives of base nanomaterials), capable of actively targeting osteosarcoma cells and overcoming multi-drug resistance. The chapter explains the synthesis and characterization techniques of the materials used to develop polymeric micelles. The results, a reflection of the conjugation of different experimental solutions initiated here, point to a modern route towards the search for a therapeutic solution for osteosarcoma. The simple, structured presentation coupled with relevant information on the subject of micelle-based nanotherapeutic drug delivery make this monograph an essential handbook for pharmaceutical scientists involved in the field of nanomedicine, drug delivery, cancer therapy and any researchers assisting specialists in clinical oncology for the treatment of osteosarcoma.

The development of a vector for the delivery of therapeutic drugs in a controlled and targeted fashion is still a major challenge in the treatment of many diseases. The conventional application of drugs may lead to many limitations including poor distribution, limited effectiveness, lack of selectivity and dose dependent toxicity. An efficient drug delivery system can address these problems. Recent nanotechnology advancements in the biomedical field have the potential to meet these challenges in developing drug delivery systems. Nanomaterials are changing the biomedical platform in terms of disease diagnosis, treatment and prevention. Nanomaterials aided drug delivery provides an advantage by enhancing aqueous solubility that leads to improved bioavailability, increased resistance time in the body, decreased side effects by targeting drugs to the specific location, reduced dose dependent toxicity and protection of drugs from early release. In this volume, the contributors have compiled reports of recent studies illustrating the promising nanomaterials that can work as drug carriers, that can navigate conventional physiological barriers. A detailed account of several types of nanomaterials including polymeric nanoparticles, liposomes, dendrimers, micelles, carbon nanomaterials, magnetic nanoparticles, solid lipid-based nanoparticles, silica nanomaterials and hydrogels for drug delivery is provided in separate chapters. The contributors also present a discussion on clinical aspects of ongoing research with insights towards future prospects of specific nanotechnologies. The book is an informative resource for scholars who seek updates in nanomedicine with reference to nanomaterials used in drug delivery systems.

The development of a vector for the delivery of therapeutic drugs in a controlled and targeted fashion is still a major challenge in the treatment of many diseases. The conventional application of drugs may lead to many limitations including poor distribution, limited effectiveness, lack of selectivity and dose dependent toxicity. An efficient drug delivery system can address these problems. Recent nanotechnology advancements in the biomedical field have the potential to meet these challenges in developing drug delivery systems. Nanomaterials are changing the biomedical platform in terms of disease diagnosis, treatment and prevention. Nanomaterials aided drug delivery provides an advantage by enhancing aqueous solubility that leads to improved bioavailability, increased resistance time in the body, decreased side effects by targeting drugs to the specific location, reduced dose dependent toxicity and protection of drugs from early release. </p> In this two-part book, the contributors have compiled reports of recent studies illustrating the promising nanomaterials that can work as drug carriers which can navigate conventional physiological barriers. A detailed account of several types of nanomaterials including polymeric nanoparticles, liposomes, dendrimers, micelles, carbon nanomaterials, magnetic nanoparticles, solid lipid-based nanoparticles, silica nanomaterials and hydrogels for drug delivery is provided in separate chapters. The contributors also present a discussion on clinical aspects of ongoing research with insights towards future prospects of specific nanotechnologies. </p> Part II covers the following topics: </p> · Solid lipid nanoparticles and nanostructured lipid carriers </p> · Silica based nanomaterials </p> · Hydrogels </p> · Metallic nanoparticles </p> · Computational and experimental binding interactions of drug and β-cyclodextrin </p> · Clinical milestones in nanotherapeutics </p> · Drug delivery systems based on poly(lactide-co-glycolide) and its copolymers </p> The book set is an informative resource for scholars who seek updates in nanomedicine with reference to nanomaterials used in drug delivery systems.

Nanomedicine is a rapidly expanding field because of its benefits over conventional drug delivery technology, as it offers site-specific and target-oriented delivery of therapeutic agents. Nanoparticles and Nanocarriers Based Pharmaceutical Preparation presents a structured summary of recent advances and discoveries in nanomedicine and nanocarrier-based drug delivery. The book covers several key topics in a very simple and easy to understand language. Readers will be familiarized with many types of nanocarriers that have been developed over the past decade, the pharmaceutical formulations composed of organic and inorganic materials as well as their clinical benefits. Chapters are written with the help of authoritative sources of knowledge with the goal of building a foundational understanding of novel drug delivery systems. Since the subject matter is interdisciplinary, it will be of interest to students, teachers and researchers in a broad range of fields, including pharmaceutical sciences, nanotechnology, biomedical engineering and material sciences.

This e-book presents an overview of the different substances capable of modulating potassium channels in relation to various clinical indications in cardiology, pulmonology, endocrinology and neurology. The possible benefits and side effects of potassium channel modulators is discussed in correlation with biophysical and pharmacological properties of ion channels. Readers will learn how mutation of K+ channels can be conferred by molecular processes such as alternative splicing, RNA editing and posttranslational modifications. Altogether, this e-book will be of use to clinical practitioners, electrophysiologists and pharmacologists interested in the complicated but fascinating science of potassium channels.

Computer-Aided Drug Discovery Methods: A Brief Introduction explores the cutting-edge field at the intersection of computational science and medicinal chemistry. This comprehensive volume navigates from foundational concepts to advanced methodologies, illuminating how computational tools accelerate the discovery of new therapeutics. Beginning with an overview of drug discovery principles, the book explains topics such as pharmacophore modeling, molecular dynamics simulations, and molecular docking. It discusses the application of density functional theory and the role of artificial intelligence in therapeutic development, showcasing successful case studies and innovations in COVID-19 research. Ideal for undergraduate and graduate students, as well as researchers in academia and industry, this book serves as a vital resource in understanding the complex landscape of modern drug discovery. It emphasizes the synergy between computational methods and experimental validation, shaping the future of pharmaceutical sciences toward more effective and targeted therapies.