Genome Based Therapeutics

The number of new drug approvals has remained reasonably steady for the past 50 years at around 20 to 30 per year, while at the same time the total spending on health-related research and development has tripled since 1990. There are many suspected causes for this trend, including increases in regulatory barriers, the rising costs of scientific inquiry, a decrease in research and development efficiency, the downstream effects of patient expirations on investment, and the lack of production models that have successfully incorporated new technology. Regardless, this trajectory is not economically sustainable for the businesses involved, and, in response, many companies are turning toward collaborative models of drug development, whether with other industrial firms, academia, or government. Introducing greater efficiency and knowledge into these new models and aligning incentives among participants may help to reverse the trends highlighted above, while producing more effective drugs in the process. Genome-Based Therapeutics explains that new technologies have the potential to open up avenues of development and to identify new drug targets to pursue. Specifically, improved validation of gene-disease associations through genomics research has the potential to revolutionize drug production and lower development costs. Genetic information has helped developers by increasing their understanding of the mechanisms of disease as well as individual patients' reactions to their medications. There is a need to identify the success factors for the various models that are being developed, whether they are industry-led, academia-led, or collaborations between the two. Genome-Based Therapeutics summarizes a workshop that was held on March 21, 2012, titled New Paradigms in Drug Discovery: How Genomic Data Are Being Used to Revolutionize the Drug Discovery and Development Process. At this workshop the goal was to examine the general approaches being used to apply successes achieved so far, and the challenges ahead.

The number of new drug approvals has remained reasonably steady for the past 50 years at around 20 to 30 per year, while at the same time the total spending on health-related research and development has tripled since 1990. There are many suspected causes for this trend, including increases in regulatory barriers, the rising costs of scientific inquiry, a decrease in research and development efficiency, the downstream effects of patient expirations on investment, and the lack of production models that have successfully incorporated new technology. Regardless, this trajectory is not economically sustainable for the businesses involved, and, in response, many companies are turning toward collaborative models of drug development, whether with other industrial firms, academia, or government. Introducing greater efficiency and knowledge into these new models and aligning incentives among participants may help to reverse the trends highlighted above, while producing more effective drugs in the process. Genome-based therapeutics explains that new technologies have the potential to open up avenues of development and to identify new drug targets to pursue. Specifically, improved validation of gene-disease associations through genomics research has the potential to revolutionize drug production and lower development costs. Genetic information has helped developers by increasing their understanding of the mechanisms of disease as well as individual patients' reactions to their medications. There is a need to identify the success factors for the various models that are being developed, whether they are industry-led, academia-led, or collaborations between the two. Genome-Based Therapeutics summarizes a workshop that was held on March 21, 2012, titled New paradigms in drug discovery: how genomic data are being used to revolutionize the drug discovery and development process. At this workshop the goal was to examine the general approaches being used to apply successes achieved so far, and the challenges ahead"--Publisher's description

An Introduction to Molecular Medicine and Gene Therapy Edited by Thomas F. Kresina, Ph.D. Gene therapy, or the use of genetic manipulation for disease treatment, is derived from advances in genetics, molecular biology, clinical medicine, and human genomics. Molecular medicine, the application of molecular biological techniques to disease treatment and diagnosis, is derived from the development of human organ transplantation, pharmacotherapy, and elucidation of the human genome. An Introduction to Molecular Medicine and Gene Therapy provides a basis for interpreting new clinical and basic research findings in the areas of cloning, gene transfer, and targeting; the applications of genetic medicine to clinical conditions; ethics and governmental regulations; and the burgeoning fields of genomics, biotechnology, and bioinformatics. By dividing the material into three sections - an introduction to basic science, a review of clinical applications, and a discussion of the evolving issues related to gene therapy and molecular medicine-this comprehensive manual describes the basic approaches to the broad range of actual and potential genetic-based therapies. In addition, An Introduction to Molecular Medicine and Gene Therapy: * Covers new frontiers in gene therapy, animal models, vectors, gene targeting, and ethical/legal considerations * Provides organ-based reviews of current studies in gene therapy for monogenetic, multifactoral or polygenic disorders, and infectious diseases * Includes bold-faced terms, key concepts, summaries, and lists of helpful references by subject in each chapter * Contains appendices on commercial implications and a review of the history of gene therapy This textbook offers a clear, concise writing style, drawing upon the expertise of the authors, all renowned researchers in their respective specialties of molecular medicine. Researchers in genetics and molecular medicine will all find An Introduction to Molecular Medicine and Gene Therapy to be an essential guide to the rapidly evolving field of gene therapy and its applications in molecular medicine.

Many drug developers have examined new strategies for creating efficiencies in their development processes, including the adoption of genomics-based approaches. Genomic data can identify new drug targets for both common and rare diseases, can predict which patients are likely to respond to a specific treatment, and has the potential to significantly reduce the cost of clinical trials by reducing the number of patients that must be enrolled in order to demonstrate safety and efficacy. A key component of the approval of targeted therapeutics is the ability to identify the population of patients who will benefit from treatment, and this has largely hinged on the co-development and co-submission to the FDA of a companion diagnostic test.The co-development process, or the development of the test and drug for the simultaneous submission to FDA, has led to a major alteration in the way that drugs are being developed, with traditionally separate entities-pharmaceutical and diagnostic companies-now working in close collaboration. Refining Processes for the Co-Development of Genome-Based Therapeutics and Companion Diagnostic Tests is the summary of a workshop held by the Roundtable on Translating Genomic-Based Research for Health on February 27, 2013 to examine and discuss challenges and potential solutions for the codevelopment of targeted therapeutics and companion molecular tests for the prediction of drug response. Prior to the workshop, key stakeholders, including laboratory and medical professional societies, were individually asked to provide possible solutions to resolve the concerns raised about co-development of companion diagnostic tests and therapies. Workshop speakers were charged with addressing these solutions in their presentations by providing insight on (1) whether the proposed solutions address the problems described, (2) whether there are other solutions to propose, and (3) what steps could be taken to effectively implement the proposed solutions.

Gene therapy has emerged as a discipline in medicine that can provide treatments for diseases that have no other therapies available, save lives of patients for whom there is no other hope and replace suboptimal treatments with lasting cures. 'Fast Facts: Gene Therapy' provides an overview of the field, looking at the main vector systems used to transfer the therapeutic gene constructs, the molecular mechanisms and the history of gene therapy, as well as the safety and ethical considerations of this important advance. Multiple examples of diseases that are already successfully treated with gene therapy are given, with discussion of treatments that hold promise for the future. This book will be informative and of value to health professionals, researchers, students and anyone with an interest in this exciting and fast-moving area. Contents: • Principles of gene therapy • Gene therapy techniques • Ethical and safety considerations • Gene therapies with proven clinical efficacy • Genome editing • Research directions – the next wave of treatments

In this book, leading international experts analyze state-of-the-art advances in gene transfer vectors for applications in inherited disorders and also examine the toxicity profiles of these methods. The authors discuss the strengths and weaknesses of available vectors in the clinical setting, and specifically focus on the challenges and possible solutions that researchers are testing in order to improve the safety of gene therapy for genetic diseases. This comprehensive and authoritative overview of vector development is a necessary text for researchers, toxicologists, pharmacologists, molecular biologists, physicians, and students in these fields.

As human gene therapy becomes a clinical reality, a new era in medicine dawns. Novel and innovative developments in molecular genetics now provide opportunities to treat the genetic bases of diseases often untreatable before. Somatic Gene Therapy documents these historical clinical trials, reviews current advances in the field, evaluates the use of the many different cell types and organs amenable to gene transfer, and examines the prospects of various exciting strategies for gene therapy.

The field of pharmaceutical biotechnology is evolving rapidly. A whole new arsenal of protein pharmaceuticals is being produced by recombinant techniques for cancer, viral infections, cardiovascular and hereditary disorders, and other diseases. In addition, scientists are confronted with new technologies such as polymerase chain reactions, combinatorial chemistry and gene therapy. This introductory textbook provides extensive coverage of both the basic science and the applications of biotechnology-produced pharmaceuticals, with special emphasis on their clinical use. Pharmaceutical Biotechnology serves as a complete one-stop source for undergraduate pharmacists, and it is valuable for researchers and professionals in the pharmaceutical industry as well.