The Challenge of the Post-Genome Era

The genome projects are generating an unprecedented amount of information regarding the identification and structure of genes. The comprehensive catalog of all known human genes together with their nucleotide sequence will intensify research efforts on exploration of gene function, both individually and collectively, at the molecular, cellular, organismal and population levels.

With the development of new data on gene sequence, along with emerging novel technologies, the global biomedical research enterprise is undergoing a major paradigm shift that is revolutionizing biological research. Hypothesis-driven science has been the historical modus operandi for the last 200 years. However, because of the current exponential increase in genomic data, a shift to discovery-driven science is under way. This change will form the basis for new, more intelligent hypotheses, which will serve as the foundation for new, targeted treatments for many diseases. Furthermore, preventive medicine will flourish with the identification of individual predisposition to specific diseases and a much deeper understanding of basic biological phenomena.

The immense quantity of data being generated is just the beginning of this revolution. The next great challenge is now upon us: to provide meaning to this vast catalog of information, a challenge orders-of-magnitude more difficult than we have previously faced. Knowing which gene networks are not functioning properly, or which genetic variants influence disease predisposition in an organism, contributes significantly to the ability to develop effective clinical interventions for any particular disease.

To meet these challenges, UNC-Chapel Hill has initiated an unprecedented phase of growth and expansion in human genetics, molecular genetics, gene expression, developmental genetics, genome mapping and organization, genetic epidemiology and biostatistics. Resulting are exciting research programs and training in all aspects of genetics, in organisms as diverse as plants, fruit flies, nematodes (roundworm/threadworm), mice and humans. This initiative in genetics and genomics has led to the establishment of a new department of genetics within the UNC School of Medicine and a university-wide center for genetics and genomics. A basic research program in genetics and genomics within the context of a major university such as UNC-Chapel Hill represents an exciting paradigm for bench-to-bedside research. The research approaches being applied range from large-scale genome sequencing to the micro-scale assaying of the metabolic state of a single cell. However, all approaches share the theme of integrating biology with technology and maximize the use of computational data analysis and management.

The application of the tools of genetics/genomics will have a profound impact on scientific discovery, the delivery of health care, the legal system and on many aspects of our culture and society. As a result, these technologies and their scientific uses demand integration with the ethical, legal, social and technology transfer programs.