This new volume of Methods in Enzymology continues the legacy of this premier serial with quality chapters authored by leaders in the field. This volume covers research methods in RNA folding and dynamics, RNA-protein interactions and large RNPs.

Biomarkers in Bipolar Disorders summarizes cutting-edge findings in biomarkers' research, emphasizing the most promising findings, tools and technologies relevant to drug development and personalized medicine. Key findings cover different levels of evidence such as genes, molecules, cells, systems, brain and behavior related to diagnosis (state and trait/endophenotypes), prediction of treatment response and follow-up outcomes, along with the most promising perspectives in each area. Each section includes a comprehensive and focused overview on the state-of-the-art and perspectives. The book concludes with a section on practical applications, encompassing diagnostics development (genetic testing, biomarkers), and new drug development. Edited by Dr. Rodrigo Machado-Vieira and Dr. Jair C. Soares, and contributed by leading experts in the field of biomarker research, this book will be become the leading tool for all researchers and clinicians in Bipolar Disorder.

Lecture provides an overview of the progress made in molecular medicine applying genetics and genomics to the understanding, diagnosis, and treatment of human diseases. Specifically, the methods for identifying genes involved in human diseases are described. Examples from 10 genes and diseases will be provided, drawing on the author's research. Topics include examples from simple Mendelian diseases, such as cystic fibrosis, inherited cancers, oncogenes activated by chromosomal translocations, host genes involved in infectious disease, genes identified via genomewide association studies, pathogens causing cancer, and gene families contributing to multiple diseases. For each example, historical details will be provided as background for readers to understand the context and process of the discoveries, technologies explained, and current understanding and treatment implications detailed.

"Conceptual Breakthroughs in Evolutionary Genetics" is a pithy, lively book occupying a special niche-the conceptual history of evolutionary genetics- not inhabited by any other available treatment. Written by a world-leading authority in evolutionary genetics, this work encapsulates and ranks 70 of the most significant paradigm shifts in evolutionary biology and genetics during the century-and-a-half since Darwin and Mendel. The science of evolutionary genetics is central to all of biology, but many students and other practitioners have little knowledge of its historical roots and conceptual developments. This book fills that knowledge gap in a thought-provoking and readable format.

This fascinating chronological journey along the many conceptual pathways to our modern understanding of evolutionary and genetic principles is a wonderful springboard for discussions in undergraduate or graduate seminars in evolutionary biology and genetics. But more than that, anyone interested in the history and philosophy of science will find much of value between its covers.
Provides a relative ranking of 70 seminal breakthroughs and paradigm shifts in the field of evolutionary biology and geneticsModular format permits ready access to each described subjectHistorical overview of a field whose concepts are central to all of biology and relevant to a broad audience of biologists, science historians, and philosophers of scienceExtensively cross-referenced with a guide to landmark papers and books for each topic

The brains of males and females, men and women, are different, that is a fact. What is debated is how different and how important are those differences. Sex differences in the brain are determined by genetics, hormones, and experience, which in humans includes culture, society, and parental and peer expectations. The importance of nonbiological variables to sex differences in humans is paramount, making it difficult if not impossible to parse out those contributions that are truly biological. The study of animals provides us the opportunity to understand the magnitude and scope of biologically based sex differences in the brain, and understanding the cellular mechanisms provides us insight into novel sources of brain plasticity. Many sex differences are established during a developmental sensitive window by differences in the hormonal milieu of males versus females. The neonatal testis produces large amounts of testosterone which gains access to the brain and is further metabolized into active androgens and estrogens which modify brain development. Major parameters that are influenced by hormones include neurogenesis, cell death, neurochemical phenotype, axonal and dendritic growth, and synaptogenesis. Variance in these parameters results in sex differences in the size of particular brain regions, the projections between brain regions, and the number and type of synapses within particular brain regions. The cellular mechanisms are both region and endpoint specific and invoke many surprising systems such as prostaglandins, endocannabinoids, and cell death proteins. Epigenetic modifications to the genome both establish and maintain sex differences in the brain and behavior. By understanding when, why, and how sex differences in the brain are established, we may also learn the source of strong gender biases in the relative risk and severity of numerous neurological diseases and disorders of mental health. Boys are much more likely to be diagnosed with autism spectrum or attention and hyperactivity disorders, as well as speech and language deficits, compared to girls. By contrast, women are more likely to suffer from affective disorders, such as depression, anxiety, compulsion, and eating disorders and more likely to experience autoimmune and neurodegenerative disorders. Schizophrenia with an early onset is more common in males but a late-onset version is markedly more frequent in females. Male biased disorders have origins in development while female biased disorders are almost exclusively post-puberty. This remarkable shift in disease risk demands our attention. Novel insights into the biological origins of disease are also gained by comparing and contrasting the same processes in different sexes.

How scientific advances in genetic modification will fundamentally change the natural world The process of manipulating the genetic material of one animal to include the DNA of another creates a new transgenic organism. Several animals, notably goats, mice, sheep, and cattle are now genetically modified in this way. In Our Transgenic Future, Lisa Jean Moore wonders what such scientific advances portend. Will the natural world become so modified that it ceases to exist? After turning species into hybrids, can we ever get back to the original, or are they forever lost? Does genetic manipulation make better lives possible, and if so, for whom? Moore centers the story on goats that have been engineered by the US military and civilian scientists using the DNA of spiders. The goat's milk contains a spider-silk protein fiber; it can be spun into ultra-strong fabric that can be used to manufacture lightweight military body armor. Researchers also hope the transgenically produced spider silk will revolutionize medicine with biocompatible medical inserts such as prosthetics and bandages. Based on in-depth research with spiders in Florida and transgenic goats in Utah, Our Transgenic Future focuses on how these spidergoats came into existence, the researchers who maintain them, the funders who have made their lives possible, and how they fit into the larger science of transgenics and synthetics. This book is a fascinating story about the possibilities of science and the likely futures that may come.