CCSTG+10 Nov 7-8 Meeting
Interpretive Summary
 
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Looking Back
The participants in the CCSTG+10 meeting began by reflecting on major changes and developments of the last ten years. Among items noted were:
  1. Changes in the geopolitical and geoeconomic context and thus the challenges for S&T. The landscape of the Carnegie Commission when it began in 1988 was dominated by worries about the Soviet breakup and a possible .Weimar Russia., and the Japanese economic threat. This contrasts strongly with the present context highlighted by radical Islam, the extraordinary rise in destructive capacity available to small groups, and divisions associated with globalization.

  2. Fluctuations and some notable declines in the level and influence of science and technology advice. Losses include the discontinuation of OTA and a lessening of the influence of OSTP since Bush I, which was viewed as a highwater of OSTP influence. Positive developments include the science advisor to the Secretary of State and the persistence of the Carnegie Group of science advisors to heads of state.

  3. Changes in the perceived importance of S&T issues, both in American leadership as well as in the general public. The Cold War, especially its early phase, made it easy to appreciate the importance of S&T. So did the dot.com high tech boom in the 1990s. Participants wondered whether the public and political leaders are making the connections between present issues, such as homeland security, and S&T.

  4. The actual advances in S&T in the last decade, particularly in information technology and biosciences. These innovations hold both .bright. and .dark. possibilities. The payoffs in health and medicine from the huge investments in life science research should be especially strong in the next decades, but biology also has a added a dangerous face rarely seen in recent times, with new concerns arising about biological agents and the risk of terrorism.

  5. Unabated erosion of key aspects of the science and technology base in America. Among the aspects cited were low and declining undergraduate and graduate enrollment of domestic students in many fields of science and engineering, related failures to make scientific and engineering careers more attractive, less time allocated for basic sciences in K-12 classes, failures to implement numerous recommendations in K-12 education going back to the 1983 A Nation at Risk report, and poor scientific literacy, particularly among elected officials.

  6. Continued increase in technical issues faced (or evaded) by the judiciary. The Commission was prescient in this domain, but the spread of complex, technical issues in the Courts (such as the tobacco and asbestos suits) has far exceeded enhancement of capacities to deal with them.

  7. Other issues touched upon included international development, environment, energy, and recruiting mechanisms for strong S&T candidates in government positions, particularly for critical sub-cabinet positions. New potential sources of tension between universities (which house many scientists) and government were also noted, including issues of classified or dangerous research on campus and restrictions on foreign students.
Considering the developments, participants commented on the overall impact of the original Commission. The general view was that the Commission had identified and articulated numerous issues, but few changes resulted that were sustained over time, while pressure and attention continued to be applied rather directly. A major reason offered was that the Commission, like many attempts at offering science advice itself, was rather academic in its behavior, emphasizing the writing and publishing of reports. A comparison was made with OTA, which was dispensible in part because its reports were .too detailed, too long, and too late.. The transmission mechanisms of the original Commission could have been more geared toward the culture of high levels of government, that is, oral and relying on individuals as the vectors of ideas, both to deliver and implement them. The AAAS and potentially the White House Fellows programs were cited as effective means of continuing to refresh S&T input into government.

A consensus emerged that, whatever the participants might propose to move forward with, reconvening the Carnegie Commission or constituting a new comprehensive effort on a similar multi-year scale lacked appeal. Many of the "statements of the problem" of the original Commission are still valid. If there is work to be done, it is in making particular reforms happen and perhaps spotlighting a few new issues.

Suggested Directions

In five areas participants identified both a need and a practical, low-cost strategy for action.
  1. Effective implementation of S&T in the new Department of Homeland Security. It is urgent that the new Department of Homeland Security get the S&T gene inserted and expressed in it from the outset, that is, immediately. The legislation has the right words, allowing, for example, for the creation of equivalents of DARPA, DSB, and DDR&E, and top level appointees. The question is prompt and effective implementation, including finding outstanding scientists and engineers for leadership positions in the department. The Congress as well as the Executive Branch will strongly influence implementation. It was felt that a network of people working to assure implementation through letters, visits, testimony, Op-Eds and other means would be useful over the next few months.

  2. Refreshing and maintaining the strength of science in the White House. This is a chronic need. In the absence of the rare very strong direct personal demand for science in the White House by a President, the S&T community needs always to be working closely with the President's Science Advisor to make sure the Advisor has the resources, including access, to do the job right. In the present administration, the late appointment of Jack Marburger combined with 9/11 (which caused a large fraction of employees in the Old Executive Office Building to be moved off White House premises, including OSTP) has created a particular set of challenges. At the same time, the homeland security issues have created major opportunities for OSTP to contribute to policy discussions about the structure and function of the new department.. Congress as well as the White House may influence the situation. It was agreed that it would be timely to consult with Dr. Marburger about ways to enhance the ability of OSTP to do its jobs, and to rally the community to provide support in various ways, for example, identification of White House Fellows for OSTP qualified to provide leadership on urgent issues.

  3. Science and Math Education. It was pointed out that the 2003 Congress will be faced with the Reauthorization of the Higher Education Act. This could provide a major opportunity to enhance the Federal role in science and math education. Usually the science, engineering, and math communities have taken little interest in such legislation. In 1958 in response to Sputnik, the National Defense Foreign Language Education Act was passed to prepare more and better foreign language teachers, and was quite successful for a decade or so. Several participants felt that deficits of domestic S&T professionals and literacy are a national security issue. It was agreed that the science, engineering, and math community should be prepared with language for titles in the re-authorization.

  4. Energy and environment. Participants noted the struggles of the Bush Administration to prepare an Energy Plan and then a Climate Plan consistent with it. Questions were raised as to whether the executive branch agencies could implement any energy plan. There have been quite a few. Moreover, concerns about environment and natural resources are now commonly viewed in the framework of sustainable development, but the relevant departments (Energy, EPA, Interior, Commerce, Agriculture, etc.) are not constituted to deal with this more integrated concept of environment and development. Several participants argued that environment or sustainable development could or should be a major issue for the 2004 election. A key question raised is the degree to which well-crafted federal policies could hasten the technological transition from traditional to new low/no emission energy sources. It was agreed there might be non-partisan or bi-partisan ways to surface good ideas, such as Keystone meetings, that would address both policy directions and institutional reform.

  5. Research and education about science in government within US universities. Participants noted the scarcity of good S&T-related coursework for public policy students, and/or for more senior policy professionals. And S&T students have or take few chances to learn about relevant aspects of government. An early step to address this topic should be a survey of the S&T policy coursework currently available. Participants did believe that the academic community interested in these issues is now large and deep enough to support centers or networks. One model might be the National Center for Ecological Analysis and Synthesis (NCEAS, operated from UC Santa Barbara). NCEAS is mostly a virtual center. Its members identify themes and operate study groups that last a few years on particular topics. Such a model could help coalesce academic experts concerned with, for example, science and the judiciary, or science and Congress. It was agreed to explore alternatives for strengthening the academic colonies concerned with science in government.
A final, related idea, cutting across all the issues above, was to encourage the writing of a string or series of short essays, not to exceed 2000 words, reviewing some of the key institutions for S&T in government. If appearing in journals such as Science or Nature, these could helpfully stir reflection and reform. It was agreed that the key was to identify individuals who could expertly and cogently on the various institutions.

Diverse clusters of attendees agreed to work together in coming months to try to move forward the above items on a voluntary basis without creating a new organizational structure.

Prepared by Jesse Ausubel, Andrew Johnson, and Mark Schaefer
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Posted 12.6.02