The Social Contract of Science

To know what to change to make universities more innovative in the way they manage science, we have to go back to the way our biomedical-industrial complex is constructed.

We have come a long way from the days when science was done by a gentleman scientist in a room in his mansion, supported by his own funds or those of a generous friend. Nowadays governments put a significant part of their GDP into supporting R&D. Much of this investment, about $50 billion per year in the United States alone, goes to our research universities. Governments justify this use of taxpayers’ money by pointing out, correctly, that unfettered research activities are the most effective way of fostering the innovation needed to address current and future challenges to society. Scientists also are motivated by the sheer beauty, elegance, and excitement of fundamental discovery, but this is an acquired taste, not usually shared by the general public!

To convert university research into something valuable for society requires interaction with the private sector. If investors and manufacturers see a potential market for an innovation, then the discovery moves efficiently out of the lab and into the market place. Not only does society get something it needs, as measured by its willingness to pay for it, but the manufacturing and marketing process creates jobs and economic growth.

The social contract of science, therefore, is that university scientists are given the freedom to pursue their research interests, supported by taxpayers’ funds, because the taxpayers have been convinced that potentially commercializable discoveries will be made, which will result in new products and economic growth. The contract specifies roles for the three stakeholders: governments, universities and the private sector.

In the life sciences, the system is not working well for all three stakeholders. Government is questioning whether it is getting sufficient value when its investment in university research generates one start-up company per $100 million dollars of research funding and one patent license for every $12 million. University scientists are being told that they must stop establishing fundamental biological principles but direct their research towards specific needs of society. Venture funding, especially seed funding for life science innovation, has almost dried up. Finally, the powerhouses of the biomedical industry, the large pharmaceutical companies, have few new products coming to market and are looking at a drop in income of over $100 billion in the next few years.

The crisis in the biomedical innovation world is what is frequently called a “wicked problem,” one that is challenging to solve because it involves interactions between disconnected entities. To solve this crisis requires that the stakeholders interact with each other more productively. We believe that research universities should take the lead.

[Editor’s Note: This post is also appearing today on the QB3 website. It is part of Reg Kelly’s plan to write an occasional series of mini-essays on connected themes, rather than commenting on the news of the day.]

Author: Regis Kelly

Regis Kelly is the director of the The California Institute for Quantitative Biosciences (QB3) at the University of California. QB3 is one of four California Institutes for Science and Innovation, created by the California Legislature to strengthen the academic foundation of its technology-based industries. QB3 is the only one of the four devoted exclusively to biology and to the life science industries. It is an innovation center made up of over 200 quantitative biologists at three northern California campuses (UC Berkeley, UC Santa Cruz & UC San Francisco) working at the interface of the physical and biological sciences and a team of professionals converting its discoveries into practical benefits for society. From 2000 to 2004, Dr. Kelly served as Executive Vice Chancellor at the University of California in San Francisco, where his major responsibility was the new Mission Bay campus. This campus, whose development over the next 10 years will double UCSF’s research space, is the center of a planned 300 acre public/private biomedical research park in San Francisco. From 1995 to 2000, Dr. Kelly served as Chair of the Department of Biochemistry and Biophysics at UCSF; from 1988 to 1995, he was the Director of UCSF’s Cell Biology Graduate Program; and from 1992 to 2000, he was the Director of the Hormone Research Institute at UCSF. He has published extensively in the areas of cell and neurobiology. Dr. Kelly received his undergraduate degree in Physics from the University of Edinburgh in Scotland in 1961 and his Ph.D. in Biophysics from the California Institute of Technology in 1967. Following a post-doctoral fellowship at Stanford, Dr. Kelly was an instructor in the Department of Neurobiology at Harvard. He has served as Chairman of the Bay Area Scientific Innovation Consortium (BASIC) and on the Boards of the Malaysian Biotechnology Industry Advisory Board, the Scleroderma Foundation, the Immune Tolerance Network, Bridge Pharmaceuticals, and the San Francisco Mayor’s Biotechnology Advisory Group, among others. He is also a General Partner of Mission Bay Capital venture fund.