Table of contents

Gene Regulation documents the proceedings of the CETUS-UCLA Symposium ""Gene Regulation,"" held in Keystone, Colorado in March/April 1982. The symposium related gene structure and regulatory sequences to overall genomic organization and genetic evolution. It was the first meeting to focus on regulation of eukaryotic gene expression since the maturation in recombinant DNA technology. The book is organized into four parts. Part I presents studies on the structure of eukaryotic genes, including the organization and molecular basis for differential expression of the mouse ? light chain genes; globin gene transcription and RNA processing; and the cloning of the human chromosomal a1-antitrypsin gene and its structural comparison with the chicken gene coding for ovalbumin. Part II on chromatin structure includes papers on nuclease sensitivity of the ovalbumin gene and its flanking DNA sequences; and the relationship of chromatin structure to DNA sequence. Part III on gene expression includes papers on the role of poly(A) in eukaryotic mRNA metabolism and the in vitro transcription of Drosophila tRNA genes. Part IV on cellular biology includes studies such as the importance of calmodulin to the eukaryotic cells.

A much-needed guide through the overwhelming amount of literature in the field. Comprehensive and detailed, this book combines background information with the most recentinsights. It introduces current concepts, emphasizing the transcriptional control of genetic information. Moreover, it links data on the structure of regulatory proteins with basic cellular processes. Both advanced students and experts will find answers to such intriguing questions as: - How are programs of specific gene repertoires activated and controlled? - Which genes drive and control morphogenesis? - Which genes govern tissue-specific tasks? - How do hormones control gene expression in coordinating the activities of different tissues? An abundant number of clearly presented glossary terms facilitates understanding of the biological background. Speacial feature: over 2200 (!) literature references.

This textbook aims to describe the fascinating area of eukaryotic gene regulation for graduate students in all areas of the biomedical sciences. Gene expression is essential in shaping the various phenotypes of cells and tissues and as such, regulation of gene expression is a fundamental aspect of nearly all processes in physiology, both in healthy and in diseased states. This pivotal role for the regulation of gene expression makes this textbook essential reading for students of all the biomedical sciences, in order to be better prepared for their specialized disciplines. A complete understanding of transcription factors and the processes that alter their activity is a major goal of modern life science research. The availability of the whole human genome sequence (and that of other eukaryotic genomes) and the consequent development of next-generation sequencing technologies have significantly changed nearly all areas of the biological sciences. For example, the genome-wide location of histone modifications and transcription factor binding sites, such as provided by the ENCODE consortium, has greatly improved our understanding of gene regulation. Therefore, the focus of this book is the description of the post-genome understanding of gene regulation. The purpose of this book is to provide, in a condensed form, an overview on the present understanding of the mechanisms of gene regulation. The authors are not aiming to compete with comprehensive treatises, but rather focus on the essentials. Therefore, the authors have favored a high figure-to-text ratio following the rule stating that “a picture tells more than thousand words”. The content of the book is based on the lecture course, which is given by Prof. Carlberg since 2001 at the University of Eastern Finland in Kuopio. The book is subdivided into 4 sections and 13 chapters. Following the Introduction there are three sections, which take a view on gene regulation from the perspective of transcription factors, chromatin and non-coding RNA, respectively. Besides its value as a textbook, Mechanisms of Gene Regulation will be a useful reference for individuals working in biomedical laboratories.

Eukaryotic Gene Regulation covers the aspects and mechanisms of gene regulation of selected eukaryotes, such as yeast, Drosophila, and insect. This book is organized into eight parts, encompassing 52 chapters. The majority of the chapters are presented in an experimental manner containing an abstract, methods, results and discussion, and conclusion. This book first gives a short overview of the evolutionary role of interspersion in eukaryotic genes. It then presents considerable chapters on control of gene expression in yeast; gene mutation and isolation; structure and function; and analysis. Part III focuses on genetic and DNA sequence analysis in Drosophila. It includes discussions on allelic complementation and transvection, genetic organization, histone gene, and gene transcription. Part IV examines cell lineage; gene expression and sequences; and protein synthesis of insects, sea urchin, and mammalian cells. This is followed by discussions on structure and expression of specific eukaryotic genes from chicken, rat, rabbit, and human. Topics on the transfer of genetic information within and between cells and the structure and function of chromosome are significantly considered in Parts VI and VII. Genes evaluated in these sections include heavy chain immunoglobulin, light chain, beta-globin, and dihydrofolate reductase. Furthermore, this book describes the in vitro transcription and the factors involved; internal organization and mechanism of assembly of nucleosome; and chromatin structure. The concluding section focuses on aspects of viral genome expression including gene regulation, synthesis, processing, and alternative RNA splicing. Research biologists, geneticists, scientists, teachers, and students will greatly benefit from this book.

Regulation of gene expression Regulation of gene expression

Biology for AP® courses covers the scope and sequence requirements of a typical two-semester Advanced Placement® biology course. The text provides comprehensive coverage of foundational research and core biology concepts through an evolutionary lens. Biology for AP® Courses was designed to meet and exceed the requirements of the College Board’s AP® Biology framework while allowing significant flexibility for instructors. Each section of the book includes an introduction based on the AP® curriculum and includes rich features that engage students in scientific practice and AP® test preparation; it also highlights careers and research opportunities in biological sciences.

Many inheritable changes in gene function are not explained by changes in the DNA sequence. Such epigenetic mechanisms are known to influence gene function in most complex organisms and include effects such as transposon function, chromosome imprinting, yeast mating type switching and telomeric silencing. In recent years, epigenetic effects have become a major focus of research activity. This monograph, edited by three well-known biologists from different specialties, is the first to review and synthesize what is known about these effects across all species, particularly from a molecular perspective, and will be of interest to everyone in the fields of molecular biology and genetics.

The use of molecular biology and biochemistry to study the regulation of gene expression has become a major feature of research in the biological sciences. Many excellent books and reviews exist that examine the experimental methodology employed in specific areas of molecular biology and regulation of gene expression. However, we have noticed a lack of books, especially textbooks, that provide an overview of the rationale and general experimental approaches used to examine chemically or disease-mediated alterations in gene expression in mammalian systems. For example, it has been difficult to find appropriate texts that examine specific experimental goals, such as proving that an increased level of mRNA for a given gene is attributable to an increase in transcription rates. Regulation of Gene Expression: Molecular Mechanisms is intended to serve as either a textbook for graduate students or as a basic reference for laboratory personnel. Indeed, we are using this book to teach a graduate-level class at The Pennsylvania State University. For more details about this class, please visit http://moltox. cas. psu. edu and select “Courses. ” The goal for our work is to provide an overview of the various methods and approaches to characterize possible mechanisms of gene regulation. Further, we have attempted to provide a framework for students to develop an understanding of how to determine the various mechanisms that lead to altered activity of a specific protein within a cell.