Casting a Wider Net: Divining the Future of the Digital Biology Philip LoCascio Oak Ridge National Laboratory The last decade has seen an unprecedented growth in both the quality and quantity of experimental biological data , and firmly established computational biology and informatics as a critical component of the life sciences. At the heart of this revolution has been the astonishing maturing of both parallel and distributed computing technologies to permit the rapid analysis and dissemination of critical information to the biomedical research community. A focus within the Life Sciences division at the Oak Ridge National Laboratory has been to develop technologies that can be applied to large scale problems such as Whole Genome and Proteome analyses, Protein Structure and function determination, and other annotations that can accessed transparently via the WWW and coupled with other data sources. The Genomic Integrated Supercomputing Toolkit (GIST) and the multiple analyses Pipelines (GAT,GAP), form the core of a large scale annotation and analysis environment for both Eukaryotic and Prokaryotic organisms, and continually being extended to handle the challenges of the DOE Genomes to Life program. One of the critical problems being addressed is the management of large scale data, in coordination with large scale analysis of increasing sophistication, and the continuing need to have access and confidence in the reliability of results. With the advent of the large genome sequencing projects, the inherently distributed nature of large scale data production has added complexity to the use of distributed supercomputers , simply in order to make analysis tractable. This talk will focus on some existing large scale computational biology technologies, and a number of the biological research problems that are being targeted with the next generation of algorithms and computer hardware being developed, and will address the preparations for the next generation of even larger scale experimental enterprises.