nsf funding for chemical research in serious trouble
TRANSCRIPT
GOVERNMENT
NSF Funding for Chemical Research in Serious Trouble
Study shows agency support for organic chemistry, other basic research at universities is stagnant, affecting future supply of chemists
A special committee set up by the National Science Foundation this year has reported that funding for chemistry research is in deep trouble. Although the study was undertaken originally to look at problems specific to organic chemistry, it soon became obvious that all branches of the science face serious problems.
The panel was cochaired by Clayton H. Heathcock and Robert G. Bergman, both professors of chemistry at the University of California, Berkeley. Nine other chemistry professors from several areas served on the panel as well. The tenor of the report is that NSF support for aca-
Bergman: fund buffer disappearing
demie basic chemical research, despite agency funding increases, is stagnant, and that this is having far-reaching effects, especially on the development of future chemists.
According to Edward F. Hayes, director of NSF's chemistry division, the organic chemistry community's concern began last year. The division was considering a reorganization and, through accident and coincidence, representation for organic chemistry on its advisory panel was at a historically low level. At about the same time, a rumor was circulating that NSF was greatly diminishing its support for organic chemistry. This prompted Heathcock and Bergman to write to Hayes in an effort to find out what was happening. When the chemistry division advisers met last fall, they decided that these concerns needed an answer and asked them to head up a committee formed to investigate the matter.
The 11 members of the panel met for several days with NSF staff members and looked carefully into how the grant funding process was being handled. In addition, they conducted two surveys. One survey, according to Heathcock, queried organic chemists at 60 universities. More than 50 responses were received. The panel also wrote to all the schools listed in the American Chemical Society Directory of Graduate Research asking for information on faculty vacancies.
"At the very beginning of our meetings, maybe even before, we decided that the problem was probably far beyond just affecting organic chemistry," Heathcock says. "So a lot of our conclusions are about chemistry in general."
Still, organic chemistry funding was the main focus, and the committee turned up some surprising
Heathcock: astonished by vacancies
data. From its survey, it discovered that NSF provides only about 25% or less of the total organic chemistry research funding at universities. However, 45% of total basic research funding is supplied by NSF. The panel points to two reasons for this discrepancy. One is that organic chemistry has received a large amount of funds that have gone into instrumentation grants. More important, organic chemistry generally has more "other support" than most chemical disciplines, the majority of which comes from the National Institutes of Health.
"NIH has supported organic chemistry more than other areas in the past," Heathcock says. It has believed that organic chemistry, especially organic synthesis, was an integral part of medical research. But the success rate for proposals from organic chemists is dropping, and the problem is particularly bad for physical organic chemists.
"After the 1970s," Bergman says,
May 25, 1987 C&EN 17
Government
"NIH began pulling out of funding physical organic chemistry in a major way. And when the NSF funds were tightened, these chemists didn't have the buffer left that the synthetic organic chemists have."
The panel did not fault the NSF grant process, although many of the university chemists surveyed complained that the quality of the reviews necessary to get an NSF grant has become almost impossibly high. Hayes believes the report says that what the foundation is doing is reasonable. "We have been doing the same things for the past two or three years that we have been doing for the past decade," Hayes says.
The survey of organic chemists' experiences with NSF told an important story. Heathcock explains that he and Bergman asked one organic chemist at each of the schools to talk over the problem of funding with his or her colleagues. "All of us were absolutely blown away by the unanimity and discouragement expressed. We were not prepared for the emotions in these comments," Heathcock says.
Bitterness and discouragement were expressed among investigators who have had grants discontinued for reasons they don't understand and scientists who have just given up even trying to get a grant from NSF. In addition, there is a general perception that NSF and its reviewers expect more research than is warranted, given the size of the grant awarded.
Heathcock says they also were unprepared for the huge number of vacancies waiting to be filled on chemistry faculties. They estimate about 390 vacancies existed at the beginning of this academic year, and about 165 of those are chronic vacancies, most at the senior level. "The number of vacancies was astonishing," Heathcock says.
One of the biggest fears of chemists is that they are becoming increasingly dependent on mission-oriented agencies for funds. "Four agencies—NSF, NIH, the Department of Energy, and the Department of Defense—provide about 90% of the federal funding for academic research," Heathcock says. Most of this funding does not support pure basic research. "One dan
ger we see is that NSF director [Erich] Bloch is moving NSF more and more toward mission-directed research," Heathcock says.
This move is not viewed favorably by the scientists on the committee. They strongly urge more support for the traditional single investigator type of research that has served U.S. chemistry so well. "Mission-oriented research is not the best way to make significant discoveries," Heathcock says.
Heathcock, Bergman, and Hayes are all concerned about the impact that changes in the pattern of federal funding for basic research are having on the future supply of scientists. The feeling that there is a tremendous waste of human resources runs through the panel's report. The lack of faculty members and intense disillusionment with the federal grant system mean that many talented people are probably turning from chemistry to other fields.
There are some specific things the panel believes could be done to im-
Experts have advised the Environmental Protection Agency that the barrier to commercializing alternatives to the current batch of troublesome chlorofluorocarbons (CFCs) is neither technical nor environmental. Rather, they claim the lack of a market for these higher priced chemicals is what is stalling their introduction.
The experts from the U.S. and several other countries recommend that governments of the world fashion incentives for the more rapid commercialization of these new chemicals. The CFCs currently used—CFC-11, CFC-12, and CFC-113—are fully halogenated and long-lived, and are implicated in the destruction of Earth's protective stratospheric ozone layer. The most promising alternatives are the less halogenated CFC-134A and CFC-123.
The panel of experts, chaired by Richard J. Lagow from the University of Texas, Austin, says that those two most promising chemicals could be produced by a variety of technologies available worldwide. In other words, there would be no mo-
prove the situation. These include re-establishing a large graduate fellowship program so that students could study with the professors they choose, not just with ones who have the grants to afford the student; providing more money to single investigators and not to science centers of as yet undetermined value; and making the young investigator program more realistically reflect the relative size of each science. Heath-cock says the chemistry division awards only 8% of the young investigator proposals, whereas other, smaller branches of science have success rates as high as 40%.
The panel's report was taken seriously by the NSF chemistry division advisory board, Heathcock says, and it adopted the executive summary as its formal opinion. Board chairman Mark S. Wrighton of Massachusetts Institute of Technology promised to take the report's concerns to director Bloch on behalf of the committee.
David Hanson, Washington
nopoly. CFC-134A and CFC-123 could be produced and priced competitively. And with proper incentives, they could be on the market within six years.
Representatives from the automotive and refrigeration industries told the panel they would prefer that CFC-134A be substituted for CFC-12 currently used in refrigeration. CFC-12 now costs about 60 to 70 cents per lb in bulk quantities. Du Pont estimates that its CFC-134A would sell for $2.00 to $4.00 per lb in bulk quantities (at 1987 dollars). This substitution would require fewer changes in the refrigeration equipment, and would be feasible for these two industries.
However, representatives from the rigid foam insulation industry fear that they could not afford major price increases for the CFC-11 substitute, CFC-123. Today, CFC-11 costs about 60 cents per lb in bulk quantities. Du Pont estimates that once full-scale production is under way, CFC-123 would cost from $1.25 to $2.50 per lb in bulk quantities.
Lois Ember, Washington
Lack of market stalls new chlorofluorocarbons
18 May 25, 1987 C&EN