Targets of bullying are often the most vulnerable members of the scientific workforce-they may be low-paid graduate students or postdocs, living in a foreign country, navigating a foreign language and culture, and whose immigration status is tied directly to their employment. They may also have young families, be living paycheck-to-paycheck, and have health insurance and other benefits that depend on a contract position that can be revoked with little to no notice or cause. Finally, targets on the low end of a power differential are not likely to be supported by their institutions, particularly institutions that rely on the big grant earnings brought in by senior "bullies." This book is a brief guide to the causes of academic bullying and to their solutions.

Iron Oxide Nanoparticles for Biomedical Applications: Synthesis, Functionalization and Application begins with several chapters covering the synthesis, stabilization, physico-chemical characterization and functionalization of iron oxide nanoparticles. The second part of the book outlines the various biomedical imaging applications that currently take advantage of the magnetic properties of iron oxide nanoparticles. Brief attention is given to potential iron oxide based therapies, while the final chapter covers nanocytotoxicity, which is a key concern wherever exposure to nanomaterials might occur. This comprehensive book is an essential reference for all those academics and professionals who require thorough knowledge of recent and future developments in the role of iron oxide nanoparticles in biomedicine.

With the alarming increase in cancer diagnoses and genetic illnesses, traditional drug agents and their delivery media need to be re-evaluated to address a quickly evolving field. With newer smart materials for the controlled release of macromolecules, peptides, genetic material, etc. further complications arise, such as material performance, synthesis, functionalization and targeting, biological identity, and biocompatibility.The book provides a comprehensive overview of the recent developments on 'smart' targeting and drug delivery systems with a variety of carriers like nanoparticles, membranes, and hydrogels. It contains detailed descriptions on the recent trends in this field in the ongoing battle with catastrophic diseases like cancer. This field of research has been in its infancy and continues to face growth, and with it, further challenges and difficulties along the way toward maturity, which are accurately introduced in this book.

In recent years, the fabrication of nanomaterials and exploration of their properties have attracted the attention of various scientific disciplines such as biology, physics, chemistry, and engineering. Although nanoparticulate systems are of significant interest in various scientific and technological areas, there is little known about the safety of these nanoscale objects. It has now been established that the surfaces of nanoparticles are immediately covered by biomolecules (e.g. proteins, ions, and enzymes) upon their entrance into a biological medium. This interaction with the biological medium modulates the surface of the nanoparticles, conferring a "biological identity" to their surfaces (referred to as a "corona"), which determines the subsequent cellular/tissue responses. The new interface between the nanoparticles and the biological medium/proteins, called "bio-nano interface," has been very rarely studied in detail to date, though the interest in this topic is rapidly growing. In this book, the importance of the physiochemical characteristics of nanoparticles for the properties of the protein corona is discussed in detail, followed by comprehensive descriptions of the methods for assessing the protein-nanoparticle interactions. The advantages and limitations of available corona evaluation methods (e.g. spectroscopy methods, mass spectrometry, nuclear magnetic resonance, electron microscopy, X-ray crystallography, and differential centrifugal sedimentation) are examined in detail, followed by a discussion of the possibilities for enhancing the current methods and a call for new techniques. Moreover, the advantages and disadvantages of protein-nanoparticle interaction phenomena are explored and discussed, with a focus on the biological impacts.

Nanomedicine for Ischemic Cardiomyopathy: Progress, Opportunities, and Challenges provides an overview on the recent advances in diagnostic and treatment of ischemic cardiomyopathy diseases including myocardial infarction. Shortcomings of the current methods and how nanomedicine can address those obstacles in the field are discussed including the limitations of newly developed cell therapy approaches to clinical translation and how nanomedicine may overcome crucial issues and facilitate the successful and efficient clinical translation of cell therapy. Biomolecular therapy is also explored as another powerful approach for regeneration of heart tissue including available methods and systematic delivery of biomolecules using nanocarriers to the injured part of myocardium through active targeting. Finally, coverage of major tissue engineering advances for myocardial regeneration, including use of epicardial nanostructured patches for regeneration of injured epicardium and the highly conductive patches for enhancing cross talks between the cardiomyocytes, is explored. This concise, yet rigorous coverage, of the field of cardiac nanotechnology outlines the innovative and necessary role of nanomedicine in regenerative medicine for cardiac repair allowing researchers, clinicians, and nanotechnologists to examine the strengths and limitations of current findings and predict future trends to advance the applications of nanotechnology in cardiovascular biomedical research.