Transcription, or the process by which DNA produces RNA, is a central aspect of gene expression. Transcription factors regulate transcription during development and in disease states. As such, it is critical for researchers to gain a good understanding of the relationship between the structure of various families of transcription factors and their function, as well as roles in human disease. Since publication of the Fourth Edition, there have been major advances, notably in the areas of chromatin remodeling and genome-scale analyses. This complete update includes all new coverage of the latest developments, from enabling genomic technologies to studies on the importance of post-translational modifications beyond phosphorylation events.
Brand new coverage in this edition includes:
* Potential of transcription factors as therapeutic targets in human disease
* Importance of histone modifications
* Use of genome-based sequence analysis and high-throughput methods
* Applications of the chromatin immunoprecipitation (ChIP) assay
* Transcriptional elongation
* Regulation by post-translational modifications
* Regulatory networks and bioinformatics

Gene therapy offers considerable potential for the treatment of various incurable diseases of the nervous system. This volume describes a number of different viral vectors developed for achieving high efficiency gene delivery to the brain. Vectors described include those based on adenovirus, adeno-associated virus, Herpes Simplex Virus, lentivirus, and other retroviruses. It also discusses the potential application of such viruses in treating brain tumors, Parkinson's disease, and other diseases of the nervous system.
* Provides up-to-date account of gene therapy approaches for incurable neurological disorders
* Describes a range of gene delivery methods based on different viruses

This work is concerned with a group of proteins which were originally consid ered to be an esoteric phenomenon but which have now been shown to play critical roles both in normal and stressed cells as well as being involved in a variety of human diseases. It is the purpose of this work to give a comprehen sive view of these proteins and their various aspects. After an introductory chapter providing an overview of these proteins, the work is divided into four main sections each of which deals with one important aspect of these proteins. Thus, the first section contains a series of chapters which describe individual stress proteins and their roles in particular biological phenomena. Evidently, the induction of these proteins by elevated tempera ture or other stresses is their defining feature and the second section of this book therefore considers the regulation of stress protein gene expression both by stressful stimuli such as elevated temperature or ischaemia and by non stressful stimuli such as cytokines.

The new edition of Gene Control, for the first time, provides extensive coverage on prokaryotic gene regulation, which makes it the only textbook offering a complete and detailed account of gene control for both prokaryotic and eukaryotic organisms. The core objective of this edition is to educate students about the fundamental principles and mechanisms governing gene expression, regulation, and function. To reinforce these ideas, each chapter now includes discussion questions to promote critical thinking. There are also multiple choice questions and animations for students, and a large question bank and figure slides for instructors. The textbook also emphasizes the vital role of scientific experiments and evidence in shaping our current understanding of gene control and provides comprehensive coverage of essential gene expression techniques and methodologies throughout the book.

This extensively updated edition of the renowned textbook Gene Control will remain a valuable resource for students, instructors, researchers, and medical professionals exploring various aspects of gene control, ranging from the regulation of genes in infectious diseases to embryonic development across different organisms, from bacteria to humans.

Table of Contents

1. Level of Gene Control

2. Transcription in Bacteria

3. Gene Regulation in Bacteria

4. Structure of Chromatin

5. The Epigenome: Role of Chromatin Structure in Gene Control

6. Transcription in Eukaryotes

7. Transcription Factors and Transcriptional Control

8. Post-transcriptional Processes

9. Post-transcriptional Regulation

10. Gene Control and Cellular Signaling Pathways

11. Gene Control in Embryonic Development

12. Control of Cell Type-specific Gene Expression

13. Gene Regulation and Cancer

14. Gene Regulation and Human Disease

15. Conclusions

Glossary

Index

This work is concerned with a group of proteins which were originally consid ered to be an esoteric phenomenon but which have now been shown to play critical roles both in normal and stressed cells as well as being involved in a variety of human diseases. It is the purpose of this work to give a comprehen sive view of these proteins and their various aspects. After an introductory chapter providing an overview of these proteins, the work is divided into four main sections each of which deals with one important aspect of these proteins. Thus, the first section contains a series of chapters which describe individual stress proteins and their roles in particular biological phenomena. Evidently, the induction of these proteins by elevated tempera ture or other stresses is their defining feature and the second section of this book therefore considers the regulation of stress protein gene expression both by stressful stimuli such as elevated temperature or ischaemia and by non stressful stimuli such as cytokines.

Gene regulation is an essential process in the development and maintenance of a healthy body, and as such, is a central focus in both basic science and medical research. "Gene Regulation, Fifth Edition" provides the student with a clear, up-to-date description of gene regulation in eukaryotes, distilling the vast and complex primary literature into a concise overview. For this edition, in addition to extensive updating of existing material, sections on large-scale methodologies have been expanded, and a new section included on regulation by small interfering RNAs. More detail has been added on the role of multi-protein complexes in transcriptional activation, and the discussion of the regulation of transcription factor activity by specific modifications, to include acetylation and ubiquitination, as well as phosphorylation. The final chapter on gene regulation and human disease now includes additional novel examples, such as RNA editing in motor neurone disease, role of the transcriptional co-activator CBP in Alzheimer's disease and PML-RAR involvement in acute promyelocytic leukaemia. Students in undergraduate courses will find this book essential reading.

For this forth edition, the book has been updated thoroughly, with particular emphasis on modulation of chromatin structure by histone modifications/ remodelling complexes and the role of co-activators/ co-repressors. Methods used to analyse gene expression have also been given more attention, with a new section added on methods for examining DNA binding by transcription factors. Additionally, new sections have been added on coupling of transcription factors. Additionally, new sections have been added on coupling of transcription with post-transcriptional process and negatively acting sequence elements, which are of increasing prominence.

Neuroscience Perspectives provides multidisciplinary reviews of topics in one of the most diverse and rapidly advancing fields in the life sciences.
Whether you are a new recruit to neuroscience, or an established expert, look to this series for 'one-stop' sources of the historical, physiological, pharmacological, biochemical, molecular biological and therapeutic aspects of chosen research areas.
The recent development of Gene Therapy procedures which allow specific genes to be delivered to human patients who lack functional copies of them is of major therapeutic importance. In addition such gene delivery methods can be used in other organisms to define the function of particular genes. These studies are of particular interest in the nervous system where there are many incurable diseases like Alzheimer's and Parkinson's diseases which may benefit from therapies of this kind. Unfortunately gene delivery methods for use in the nervous system have lagged behind those in other systems due to the fact that the methods developed in other systems are often not applicable to cells like neurons which do not divide. This book discusses a wide range of methods which have now been developed to overcome these problems and allow safe and efficient delivery of particular genes to the brain. Methods discussed include virological methods, physical methods (such as liposomes) and the transplantation of genetically modified cells. In a single volume therefore this book provides a complete view of these methods and indicates how they can be applied to the development of therapies for treating previously incurable neurological disorders.