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This third and final volume in the'Ion Transport in Tumor Biology'collection presents novel diagnostic and therapeutic approaches in cancer based on the exploitation of ion transport proteins. The authors critically examine several transportome members, particularly Na+, K+, Ca2+, and Cl- channels, as well as organic solute carriers regarding their suitability as therapeutic targets. Synergistic effects resulting from the combined use of classical cytostatics with ion transport-inhibiting drugs are pointed out, and the capability of bispecific antibodies to function as anticancer drugs is discussed. As readers will also learn, the use of ion channel inhibitors could improve the outcome of radiotherapy because the development of radio-resistance during radiotherapeutic treatment often correlates with increases in the expression levels and conductance of ion channels. The translational topics of this volume form a bridge between biochemical research and therapeutic application. As part of a three-volume collection, this book will fascinate members of the active research community, as well as clinicians in the cancer field.

This book offers an unparalleled source of information on in vivo assessment of nanoparticle toxicity by using Drosophila as a model organism. Nanoparticles have emerged as an useful tool for wide variety of biomedical, cosmetics, and industrial applications. However, our understanding of nanomaterial-mediated toxicity under in vivo condition remains limited. The book begins with a chapter on synthesis and characterization of nanoparticles used for various biological, medical and commercial purposes. The rest of the chapters deal with the impact of nanoparticles on different biological aspects like behavior, physiology and metabolic homoeostasis using Drosophila as a model organism. Lastly, the book summarizes how proper characterization and evaluation of safe dosage of nanoparticles can be a boon if incorporated in consumer goods and for biomedical applications.Overall, the book pursues an interdisciplinary approach by connecting nanotechnology and biology from various angles using Drosophila as a model system, so as to develop more efficient, safe and effective use of nanoparticles for human beings.

This is the first book to summarize experimental results from the new, rapidly expanding field of research into the calcium channel in cell membrane. Calcium is an ubiquitous messenger of various cellular functions. Its fundamental role in the regulation of cardiac contractions has long been recognized. Drugs counteracting some actions of calcium ions, namely calcium antagonists, have since become essential to research. In the last decade it has been established that calcium ions reach their target intracellular system by passing through specialized calcium channels in the membrane. Recently improved experimental techniques combined with the discovery of highly specific Ca channel ligands have dramatically enlarged our knowledge of the molecular structure and function of such channels. The contributions by leading world specialists shed new light on both basic science and possible clinical implications for cardiovascular pharmacology, endocrinology and neuropharmacology.