Two Ventures Born in the Dorm Room
Meet two Duke entrepreneurs who made their homework into thriving companies.

In the old days of molecular biology, scientists tended to focus in on genes one at a time. Those genes were assembled into linear pathways, each of which took several years of work to put together. Then genomics came along and changed everything. Suddenly, labs could generate not just linear paths, but complete parts lists. Systems biology was the natural next step and, in systems biology, the network is king.
This global approach to biology requires close collaborations between experimentalists and theorists – those who are generating enormous genomic datasets in the laboratory and those with the quantitative skills to distill that complexity down and devise ways to represent it meaningfully – within a broader culture of science that is supportive of such interdisciplinary exchange.
The growth of systems biology at Duke has been driven by the creation of the NIH-funded Duke Center for Systems Biology (CSB) in 2007. The CSB was established to characterize and understand the dynamics of biological networks, including both the dynamics of network states and network structures.
Meet two Duke entrepreneurs who made their homework into thriving companies.
Scientists have engineered bacteria that are capable of sacrificing themselves for the good of the bacterial population.
Using a combination of molecular biology and mathematical modeling, Lingchong defined a new mechanism for one of main reasons why antibiotics lost their ability to kill bacteria. ...
This video describes a microfluidics device, developed by the Benfey Lab at Duke University, in which plants can be grown and their roots imaged by confocal microscopy over time and ...
Philip Benfey and colleagues say that their imaging andanalytical platform provides a means to identify genes with high potential for improving root traits and agronomic qualities of ...
Philip Benfey and colleagues present a work flow for metabolomics analyses of cell-type populations in plant roots.
To investigate how planting density and physical objects affect root system growth, Philip Benfey and colleagues grew rice in a transparent gel system in close proximity with another ...
In a Cold Spring Harbor Symposium report, Philip Benfey said his work on root development has been influenced by and has contributed to three biological approaches: molecular genetics, ...
In Proceedings of the National Academy of Sciences, Lingchong You and colleagues show that, for quorum sensing to be optimal, its kinetic properties must be appropriately ...
© 2004-2013, Duke Institute for Genome Sciences & Policy. Duke University | Duke Medicine | Interdisciplinary Studies at Duke