chemical, petroleum or pharmaceutical companies. The effects of the above on the needed human resources for biological agricultural research are both far-reaching and challenging. A brain drain on publicly supported institutions for cellular and molecular biologists was in- itiated in 1979 and has continued. This migration of human resources from the public to the private sector poses the question of who will train the future agricultural, biological and social scientists and conduct graduate training programs for advanced degrees in the agricultural sciences. Will enough DISC researchers re- main in the public sector with the current swing toward the private sector, fueled by tax write-offs and hopes of early profits in the sale of potential seeds, crop varieties, microorganisms, products of microbial transformations and vaccines? In genetic engineering, the unfortunate gap between DISC and PS research may be in the process of being bridged. Some results are finding immediate application. We may no longer (if we ever really could) separate fundamental biological scientists from practical PS and SM researchers. Biologists in the academic arena, as well as in the private sector, are now active in industrializa- tion and commercialization of their research and profit from it. Where will their loyalty be in the future? As research gains in complexity, the goal may become more one of private profit than of the public interest. Recent acquisitions of seed companies by chemical companies are already beginning to provide in-place breeding, reproduction, crop production, crop protection and market distribution networks. If this happens, who will research socially desirable but privately unprofitable technology and the socially undesirable aspects of privately profitable technology? This situation bears watching because there is always a public as well as a private interest. Government con- trols the structure of society within which the private sector operates. The results of biological and physical science research should not be permitted to restructure society unbridled and undisciplined. The possible im- pacts of changing technologies in the biological sciences are important. The results of social and humanistic research should be in place to guide governmental policies. Consequently, more social scientists are needed to do agricultural research. Other important personnel issues now face the ARE. The first is that state Agricultural Experiment Stations are still the main source of financial support for ad- vanced degrees in the agricultural sciences. They pro- vide graduate research assistantships, jobs as technicians and postdoctorals in the physical, biological and social sciences. The agricultural scientists trained in this system constitute most of the scientific expertise in the United States and a significant proportion of that in the rest of the world. These scientists are found in the U.S. Department of Agriculture, the USAID, the private sec- tor, the foundations, the international agricultural research centers, the land-grant universities and other universities, as well as many federal agencies, including the National Science Foundation, National Institutes of Health, Environmental Protection Agency, National Aeronautics and Space Administration, U.S. Depart- ment of the Interior, the Department of Energy and the Department of Commerce. Approximately nine out of 10 agricultural scientists in the nation were trained in the land-grant university system. This significant contribution of state Agricultural Experiment Stations is, for the most part, an unherald- ed and not fully recognized or appreciated input of far- reaching significance. Though there are some problems associated with such a majority coming from similar en- vironments, the timely message is that current budgetary constraints faced by state Agricultural Experiment Sta- tions is significantly reducing the number of graduate research assistantships, technicians, scholarships for undergraduate students and postdoctoral fellowships for future agricultural researchers. These terminal appoint- ments are the first to be eliminated in managing cut- backs (Wittwer, 1983). Thirty-one states have recently imposed severe budget reductions, and federal support is hardly keeping pace with inflation. The long-range implication of the above is that replacement scientists (Ph.D., M.S. and B.S. levels) will be in short supply in many areas, including integrated pest management, marketing, agribusiness, veterinary toxicology, institutional development, human resource development and public resource management. Projec- tions are that overall annual demand for college graduates with expertise in the food and agricultural sciences will exceed the available supply at present salaries by 13 percent during the 1980s. In some categories, the supply constraint will be far more severe. At current salaries, the demand for food manufactur- ing and processing scientists and engineers exceeds supply by 18 percent, and demand for agricultural admini- strators, managers and financial advisers exceeds the supply by 30 percent (National Association of State Universities and Land-Grant Colleges, 1983). Serious consideration should be given to additional training grants in the agricultural sciences for the land- grant colleges and for educational units outside the land- grant system. Very limited programs were initiated in 1982 by the Agricultural Research Service and the Economic Research Service. These programs identify highly talented young biological, social and physical agricultural scientists and subsidize their education, beginning with undergraduate degrees, with the com- mitment that those trained will stay with the system. This is to be highly encouraged. Other programs are also