Twenty-Year Vision Statement

May 2001

  How can science and technology most effectively contribute to an improved quality of life for the greatest number of people?  

This is the organizing question for Columbia University’s Center for Science, Policy, & Outcomes (CSPO). The Center is devoted to enhancing the capacity of public policy to link scientific research to beneficial societal outcomes.

The Center will create knowledge, cultivate public discourse, and foster policies to help decision makers and institutions grapple with the immense power and importance of science and technology as society charts a course for the future.

Introduction

  Man's power to achieve good or to inflict evil surpasses the brightest hopes and the sharpest fears of all ages. We can turn rivers in their courses, level mountains to the plains. Oceans and land and sky are avenues for our colossal commerce. Disease diminishes and life lengthens. Yet the promise of this life is imperiled by the very genius that has made it possible. Nations amass wealth. Labor sweats to create, and turns out devices to level not only mountains but also cities. Science seems ready to confer upon us, as its final gift, the power to erase human life from this planet.

--President Dwight D. Eisenhower1
 
Science and technology (S&T) have become the most powerful transforming forces in society, allowing people to escape fundamental need; fostering innovation and economic growth; fighting scourges like smallpox, polio, and AIDS; and joining billions of people together in information and communication networks that serve democracy as well as commerce. But the profound changes brought about by S&T have led as well to negative impacts—often unanticipated. From the industrial revolution to the information revolution, the march of scientific and technological progress has left in its wake unemployment, cultural dislocation, economic inequity, environmental destruction, even war and disease.

Just as science and technology affect our world, they are affected by public policy decisions about how research funds are allocated, priorities established, the research enterprise organized, knowledge communicated and applied, and accountability maintained. Policy decisions influence the societal consequences—the outcomes—of scientific research in realms as diverse as the economy, the environment, health, governance, national security, and social structure.

While it is clear that S&T contribute to large scale societal transformations, our current understanding of how they do so is inadequate, and this leaves us unprepared for the task of planning for the future. Today, decision makers lack the tools necessary to plan for, respond to, and integrate into public policy the dynamo of S&T progress that continually reshapes our world.

Our incomplete understanding of the impacts and effects of S&T leads to such paradoxical outcomes as AIDS drugs that work in post-industrial cultures but are thus far largely irrelevant to the developing world due to challenges of cost and distribution, and genetically modified crops that have the potential to boost nutrition and agricultural productivity but are fiercely opposed on cultural and environmental grounds.

Our lack of understanding also results in disparities between science goals and achievements. In the U.S. and abroad, much publicly funded science is explicitly promoted and justified in terms of the quest for specified societal outcomes, such as those listed in the table below. The enormous challenge of using science to contribute to such desired outcomes rests upon the ability to implement appropriate science policies.

Desired Societal Outcomes Promoted by 
National Science Agencies 
  • Increase quality and years of healthy life. Eliminate health disparities. (US Health and Human Services Department)
  • Ensure a safe and affordable food supply.  (US Agriculture Department)
  • Foster a reliable energy system that is environmentally and economically sustainable.  (US Energy Department)
  • Reduce the impacts of hazards caused by natural processes and human actions.  (US Interior Department)
  • Conserve and manage wisely the Nation's coastal and  marine resources to ensure sustainable economic opportunities.  (National Oceanic and Atmospheric Administration)
  • Improve the health of the European population. (European Union BIOMED 2 Program)

While the existing science enterprise includes highly effective mechanisms for judging the quality of science itself, there are few mechanisms aimed at understanding and assessing the linkages between scientific activities and desired outcomes. Such assessment processes are necessary to ensure progress toward goals. Growing demand for accountability can be recognized in Congressional action (e.g., the Government Performance and Results Act) and in public advocacy and activism (e.g., controversies over stem cell technologies, genetically modified organisms, and environmental regulations).

CSPO is the only intellectual center dedicated to understanding the linkages between S&T and its effects on society, and to developing knowledge and tools that can more effectively connect progress in S&T to progress toward desired societal outcomes. The Center draws on the intellectual resources of Columbia University and other institutions for the scholarly foundation to assess and foster outcome-based policies across a broad portfolio of publicly funded scientific research. The Center’s location in Washington, DC, speaks to its core commitment to generating useable knowledge for real-world decision making.

Lessons

  Science and technology are demonstrably objective and effective; but they're unquestionably bound up with power relations as social systems.

--Richard Rhodes, Pulitzer Prize-winning historian2
 
Federal science policy since World War II has been dominated by the idea that more science automatically generates better societal outcomes. But connections between scientific advance and societal outcomes are complex and often surprising. Consider the following examples:

Desired outcomes can drive science: For 50 years, the goal of materials research in the U.S. has been to produce smaller and faster devices for advanced military use. Desired outcomes were visualized in military terms alone, and focused on durability, radiation protection, and other specialized attributes. The military definition of the problem drove the science toward sophisticated silicon-based, high temperature materials with tremendous capacity for miniaturization. We committed to this path and remain on it, without having considered if it is optimal for a broader set of outcomes, such as environmental sustainability or electrical efficiency. Similarly, in the 1960s the world set out to increase agricultural productivity, and scientific research gave us the Green Revolution. But research agendas did not consider environmental, cultural, or socioeconomic impacts, and so the same research breakthroughs that helped to feed the world also led to environment degradation and the destabilization of small farming communities world wide. CSPO will help decision makers craft research agendas that respond to the broadest possible range of desired societal outcomes.

The societal value of new knowledge is determined by how it is used, and by whom: Consider the consequences of advances in atmospheric science that now allow the effects of El Niño to be predicted up to a year in advance. In Peru, for example, industrial fisheries used El Niño forecasts to track the migration of fish. The result was economic gain combined with more serious depletion of fish populations. Moreover, while companies that owned large fishing vessels could take advantage of the forecasts, local fishing communities could not. The forecasts thus undermined sustainability and magnified inequity. Again, the difficulty comes from a narrow definition of the problem that did not include consideration of social context, and thus did not lead to desired societal outcomes. No one asked what type of climate research would best contribute to sustainability and social equity. CSPO asks such questions.

The definition of the problem helps determine the relevance of the research: Combatting AIDS requires more than an understanding of the virus. Yet our research program on AIDS began with a narrow, biomedical definition of the problem. Because of that definition, society now is unable to help most of the tens of millions of AIDS patients throughout the world: the remarkable drugs created by biomedical research to slow the course of the disease are so costly that they are available only to a tiny fraction of AIDS sufferers. Fifteen years ago, if we had envisioned AIDS as a problem of socioeconomics, culture, and globalization, we could have developed a very different science policy agenda. Combating the virus would have been one part of a comprehensive approach that also would have addressed distribution systems, intellectual property, and human behavior. Our current science policy precluded such a broad perspective. CSPO will work to encourage policy makers and scientists to include societal context in the definition of scientific problems.

These examples have important implications for policy design. The materials science story indicates that choice of science objectives in the short term can constrain our options in the long term. The case of climate forecasting shows that knowledge about the potential users of information can help determine what types of information would be most broadly beneficial. The history of AIDS research suggests that integrating societal context into the definition of research problems can amplify the benefits of the research results.

A New Approach

  We are being propelled into this new century with no plan, no control, no brakes.

--Bill Joy, Co-founder and Chief Scientist, Sun Microsystems3
 
Despite the formative influence of S&T on the character and quality of modern life, there has been no institution devoted to understanding and enhancing the connections between the advance of science and technology, and the achievement of desired societal outcomes. As a first step toward filling this vacuum, Columbia University initiated the Center for Science, Policy, & Outcomes. The Center aims to foster new knowledge, public discourse, and policy formulation to help decision makers grapple with the immense power and importance of S&T as democratic society seeks to chart a course for the future.

How is it that a force of such overwhelming power and significance—the transforming power of scientific and technological advance—could be so neglected in the realm of public policy? The most important reason lies in the pervasive assumption that more knowledge and innovation lead directly and automatically to desired societal outcomes. In reality, S&T makes its way into society through institutions, enterprises, and other social structures that are themselves changed by the course of scientific progress. This is an entirely dynamic system, complex and nonlinear in its essence.

  There are uncommon opportunities now to harness the synergy between science and public policy to address contemporary development issues such as the growing divide between rich and poor, the feminization of poverty, overpopulation, [and] climate change.

--M.S. Swaminathan, "Father of the Green Revolution," 1999 Volvo Environmental Prize Laureate4
 
Until now, our policy regarding S&T was focused almost exclusively on increasing the supply of knowledge and innovation. This system has led to disconnects between scientific progress and societal progress: spectacular advances in biomedical research in the U.S. have been paralleled by skyrocketing health care costs, expanding inequity in access to health care, and mediocre levels of public health. Similarly, astonishing gains in information and communications technologies have been accompanied by declining educational achievement and stagnant levels of public awareness of issues of political, scientific, and cultural import. While science is not the cause of such problems, outcome-based science policies could make science a more effective contributor to their solution.

Historically, society has been content to react to the complexities created by advances in S&T as they arose. Yet the acceleration of scientific and technological progress increasingly renders such a laissez-faire approach untenable. The potential of such fields as information technology, biotechnology, and nanotechnology to transform society in a very short time challenges our ability to understand and shape our common destiny. There is an urgent need for open discourse and creative thinking to avoid the reaction, backlash, and disruption that can compromise both technological promise and civil society. The Center for Science, Policy, & Outcomes was created to address this need.

An Example of a Transition Toward Outcome-based Science Policy

For much of the last century, natural resource management was dominated by the idea that policy decisions must be based on comprehensive scientific knowledge of the system being managed. Declines in ecosystem health and biodiversity on scientifically managed lands were seen as mandates for more research, not as indications of a flawed scientific approach.

In recent years, however, some ecologists have come to recognize that the complexity of large ecosystems means that comprehensive, predictive knowledge of their behavior is simply not possible. Acknowledging this lack of predictability allows an entirely new relation between science and natural resource management to emerge. In this new relation, ecosystem management decisions are themselves seen as experiments; the role of science is to guide the experiments and monitor their results to determine if they are leading to the desired consequences (e.g., improved forest health with increased social and economic return). The information gathered informs future management decisions. This approach, termed “adaptive management,” demands a significant realignment of scientific priorities, away from prediction of ecosystem behavior and prescription of management strategies, and toward studies that emphasize assessment of the impacts of particular management decisions.

Making policy decisions to pursue specific lines of research and development (R&D) in order to deliver particular societal outcomes is not a new concept. Indeed, the quintessential example of such a decision— the Manhattan project—is also the most vivid illustration of the broader issue that CSPO seeks explicitly to confront. In the early 1940s, a focused and determined effort led, in very short order, to the harnessing of physical theory to engineering prowess in the quest to build a weapon that would quickly bring World War II to an end. Yet the unleashing of atomic weapons had extraordinarily broad repercussions that profoundly shaped society throughout the Cold War. Similarly, while the Green Revolution and AIDS research represent successful efforts to link science to specific desired outcomes, in both cases the quest for a solution to a narrowly defined problem has raised a much broader set of societal challenges. The point is not that such broad implications must be predicted (a vain goal, in most cases), but that they can be recognized and understood as they are arising, and that such insight can feed back into the research process itself.

The necessary new ingredient—and the value added by CSPO—is an integrated, informed, and self-correcting analytical capability that recognizes and responds to the inextricable links between S&T and societal evolution. The ultimate goal of CSPO is to replace our current approach to science and technology policy—where R&D is supported in isolation from consideration of its broad impacts—with this new integrated approach, built on a foundation of new types of insight, and new types of policies.

Yet laying this foundation will not be easy. We will need to develop and test a variety of approaches to understanding and enhancing the linkages between science and societal outcomes. We will also need to build collaborations among natural and social scientists, policy makers, research administrators, the media, and the public. Success will depend not just on new policy prescriptions, but on facilitating a more nuanced awareness of how the linkages between science and outcomes actually evolve. The list of current CSPO projects (See Below) gives some indication of the diversity of paths that we will have to follow in making progress, but this is no more than a beginning.

The Development of CSPO

Origins, 1994-1997: The Center for Science, Policy, and Outcomes had its roots in a comprehensive review of U.S. science policy held fifty years after the end of World War II. Columbia University hosted a series of conferences to address critical issues of American science policy, framed around the anniversary of the publication of Vannevar Bush’s seminal 1945 report, Science: The Endless Frontier. Three conferences, featuring over 70 presentations by 55 leading scholars, practitioners, and observers of science policy, addressed the historical, present, and future implications of Bush’s vision.

The conferences highlighted the rapid increases in the size, scope, and impacts of the nation’s S&T enterprise, and the need for a comprehensive rethinking of science policy to keep pace with these changes and the increasingly complex challenges facing our society at the dawn of the millennium.

In this light, a new center was conceived to advance understanding of the complex linkages between science and its outcomes in society, and create knowledge to help decision makers understand how science and technology can most effectively contribute to an improved quality of life for the greatest number of people.

The Inauguration Phase, 1998-2001: The Center was conceptualized in 1998, and opened its doors in 1999. During its inauguration phase, the Center has been staffed by a senior researcher, a visiting scholar, a post-doctoral research scholar, research assistants, interns, and administrative staff. Two advisory boards were established and convened to advance the development of CSPO and its ideas. The Center’s Board of Visitors [Appendix A] includes 14 senior advisors who bring a diversity of high-level experience to bear on the problem of science, technology, and outcomes. Its Academic Advisory Board [Appendix B] is made up of 15 leading scholars drawn from fields related to science policy. CSPO has sponsored and cosponsored interdisciplinary meetings and conferences on a range of issues related to innovative science policy design. Center staff and associates [Appendix C] have published numerous books and articles in major national publications and peer-reviewed journals [Appendix D]. The Center’s website has been launched at www.cspo.org, providing access to outcome-based science policy information and publications.

CSPO has established a reputation in the science policy community as a source of innovative ideas and perspectives. Center staff serve on committees at the National Science Foundation (NSF) and the National Research Council. They have been invited to brief staff at several Congressional committees and science agencies, including NSF, NASA, the Office of Science and Technology Policy, the Office of Management and Budget, the Department of Energy, the Department of Interior, and the National Oceanographic and Atmospheric Administration.

Center staff have been invited to present CSPO’s message and unique perspective before such organizations as the National Academy of Sciences, the National Academy of Engineering, the American Association for the Advancement of Science, the Brookings Institution, the National Science and Technology Council, the Pacific Northwest National Laboratory, and the European Union’s science counselors, as well as at universities in the Washington, DC area, across the nation, and in Spain, Argentina, Germany, and New Zealand. CSPO was an invited participant at the inaugural Gordon Research Conference on science and technology policy, and has helped to organize the Washington Science Policy Alliance. CSPO’s activities and ideas have been reported in The New York Times, USA Today, The Chronicle of Higher Education, The Boston Globe, and The Christian Science Monitor.

Current Center Projects

At present, Center projects focus on three general problems:

  1. Choosing between different types of research.
  2. Designing research programs to match knowledge creation with knowledge needs.
  3. Enhancing the benefits of new knowledge and innovation.

These three problems capture a broad spectrum of the context for science, policy, and outcomes, from democratic decision processes to the functioning of laboratories. The projects themselves look at a range of scales and issues, from the evolution of national science policy, to the outcome implications of various approaches in environmental research, health research, and technology development. The projects are in various stages of implementation, from early conceptual phases to full operation. Virtually all of them involve collaboration with other institutions.

1. Choosing between different types of research.

New Science Policy: Most observers agree that the compact articulated originally in Vannevar Bush's Science: The Endless Frontier needs to be updated to take into account the very different shape and content of science now. The New Science Policy Project seeks to understand the last sixty years' changes in the course of science policy and to develop alternatives for thinking broadly about the institutional and political frameworks of science policy decision making. The project began with the conference series described above, and continues with additional symposia and workshops. It will culminate in a book series focusing on science policy alternatives and their relations to social, economic and environmental outcomes.

Science, Technology, and Destiny: Science and technology are evolving at breakneck speed. Their capacity to rapidly transform our lives challenges the ability of our democratic institutions to understand and chart our destiny. To begin the process of framing, articulating and analyzing the complex challenges that we face, and thus determine how to respond in ways that protect and strengthen civil society, CSPO is working with the Funders' Working Group on New Technologies and the HKH Foundation to convene a Colloquium on Science, Technology, and Civil Society. The three-day series of events, scheduled for March 2002 at Columbia University, will explore a range of scientific, political, cultural, ethical, and economic factors involved in the development and application of emerging technologies, and will seek ways to encourage a new integration between civil society and the discovery process. This conference will be a major part of a three-year CSPO project aimed at promoting new ideas and a national discourse on making choices about our science- and technology-driven destiny.

A Societal Outcomes Map for Health Research:

  Roadmaps are working now in industry and they are beginning to gain a stronghold in science. Just as engineers first scoffed at them, so will some scientists. But who better than scientists to experiment with an experiment that can strengthen science's support and accelerate its generation of knowledge.

--Robert Galvin, Chairman of the Executive Committee, Motorola Corporation5
 
The federal government will spend nearly $19 billion on health research in FY2001—nearly half of all non-defense R&D expenditures. This level of funding reflects a trend of continuous increases for health research over the past several decades, and particularly large increases for the National Institutes of Health. Yet most gains in life expectancy and health in the U.S. over the last 60 years can be attributed to systems, technologies, and behavior that have little relation to the nation's post-World War II investment in health research (e.g., reduced smoking, vaccines, better living conditions and environmental quality). And despite unrivalled advances in biomedical research, the US ranks 24th for life expectancy (after adjusting for disability).6 The most direct routes to further increases in life span and health are well understood, but would require changes in behavior (e.g., diet, exercise) and social structure (e.g., distribution of wealth and health care). This suggests that increasing investments in biomedical research on disease mechanisms may not be the best available policy for improving public health. This project uses a well-known foresight mapping technique and other approaches to illustrate the place of biomedical research in a constellation of strategies available for pursuing public health outcomes. The map will allow policy makers to view outcome-oriented options and trade-offs comprehensively, as a first step toward a more open and knowledgeable policy debate about the role of science in the health care system.

Understanding the Uneven Advance of Knowledge: Better science policy decisions would be facilitated by more insight into why some areas of science (and their applications) advance more rapidly than others. Besides intrinsic scientific difficulty, one would expect that political and cultural context, as well as differences in resource allocation, are important contributors to this uneven advance. Distinguishing the causes of unevenness could be very important for enhancing outcome-based policy decisions, for example, by identifying problems that are not likely to be solved by more research in particular fields and highlighting others that are ripe for advance but have been resource-starved. This project will begin with a focus on biomedical research issues including infectious disease, cardiovascular problems, contraception, mental illness, and malaria.

2. Designing research programs to match knowledge creation with knowledge needs.

Extracting Societal Benefit from Earth Systems Research: Preliminary research shows that environmental decision processes, at levels from local to international, often fail to benefit from advances in a broad range of earth science fields. To increase the societal value of earth systems research, science programs and information products should be designed with the needs and capabilities of potential users in mind. This project will look at research opportunities and patterns of information production in earth systems science (with a focus on climate forecasts and carbon cycle investigations), and compare them to the information needs, capabilities, and patterns of information use of relevant decision makers. This analysis will allow us to identify areas of compatibility and incompatibility between scientific opportunity and user need. Results of this work can enhance the societal value of research results by helping to guide resource allocation and information dissemination strategies.

Prediction in Public Policy: Policy makers increasingly call upon science to predict the future behavior of the environment. Such predictions are commonly viewed as a necessary prerequisite for decision making, even though predictive capabilities are often imperfect at best. This project began by developing ten case studies of prediction in environmental policy (ranging from global climate change to asteroid impacts), assessing the scientific, social, and political factors involved in incorporating predictions into decision processes, and formulating a practical framework for the use of predictive science in policy making. As a next step, we will expand our analysis to other disciplines (e.g., ecology, economics) and other areas of policy (e.g., health, international development). We will also engage in systematic evaluation and explanation of a broad range of policy-relevant predictions, with the aim of helping decision makers better understand the strengths, weaknesses, and applications of—as well as alternatives to—predictive information.

An Outcome-Based Extreme Events Research Agenda: Extreme events, ranging from earthquakes to epidemics, oil spills to computer viruses, can cause death, societal disruption, and economic loss. Yet extreme events are also normal parts of evolving complex systems, and from some perspectives are beneficial (e.g., floods can enhance soil quality and ecosystem health). Current scientific approaches to understanding, preparing for, and responding to extreme events are balkanized among many disciplines, institutions, and sectors. In this project, we are developing a blueprint for a new, integrated research and policy approach aimed at addressing the implications of extreme events in an increasingly interdependent global society.

3. Enhancing the benefits of new knowledge and innovation.

Nanotechnology and Society: Nanoscale science and engineering is widely heralded as the next society-transforming wave of knowledge and innovation. In recognizing the potential of nanoscale R&D to transform society, we need to ask how the societal impacts of this coming revolution can be managed in order to maximize benefit and minimize problems. The experience of nuclear power and genetically modified organisms shows that waiting to respond until new technology is fully developed and introduced into society is too late.

CSPO's Nanotechnology and Society Project will integrate social impacts research with nanotechnology research to create better linkages between research agendas and desired societal outcomes. The project will develop tools and methods to map and assess the societal implications of nanoscale science and engineering; enhance awareness of societal implications among both the public and the S&T community; and develop processes that can support actual scientific and societal decision making about the direction and application of nanotechnology.

Basic Research in Service of Public Objectives: This project aims to link strategic investments in basic research to the nation's most urgent and challenging problems. Initiated in 1999 at Harvard University as the Jeffersonian Science Project, a national conference was held in late 2000, with participation from a broad range of scientists and policy makers. The resulting policy blueprint for future activity was published in May 2001. Future activities under the project include expanding and deepening the national dialogue, a broader examination of the themes of basic research in the service of public objectives, and a full exploration of test cases on education, energy, and global climate change. A website is also being developed at www.scienceforsociety.org.

Science and Public Value: This project will develop and test non-market, social-outcomes-based criteria for the formation and evaluation of science and technology policies. As an overarching planning and tool-building effort, the project will construct Science and Public Value decision-making models as alternatives to criteria rooted in economic individualism. These models will focus on the conceptualization and measurement of such public values as distributional equity in science outcomes and long-term, inter-generational social impacts. In addition, the project will test the concepts and measures developed through case studies, including: (1) a study of the pharmaceutical industry analyzing how intellectual property laws, the tax treatment of research and equipment, and approaches to industrial R&D affect the ability to market drugs at prices affordable to low income groups throughout the world; (2) a study of environmental controversies in water resources policy and the utility of public value criteria and social convergence decision-making techniques for bringing stakeholders to more effective collective action.

Structural Barriers to Scientific Careers: In many realms of science and technology, women and minorities can be found only in small numbers, and research provides ample evidence of structural barriers that impede women's and minorities' entry into science and their advance. The Structural Barriers to Scientific Careers project examines obstacles to women's and underrepresented minorities' recruitment and advancement in scientific careers, paying particular attention to subtle, indirect discrimination that affects opportunities. Previous projects funded by the National Science Foundation and the Department of Energy used survey research and a curriculum vita database to study differential impacts of research grants on men's and women's scientific careers and other factors in career productivity. Planned research will focus on (1) the interaction of scientists' productivity, family life and job satisfaction; and (2) the impacts of postdoctoral positions on men, women and underrepresented minority researchers.

Outreach

Central to CSPO’s activities is fostering dialogue among various stakeholders in the science policy process, and disseminating the Center’s ideas and products in a wide variety of venues and media. Through its outreach activities, the Center is beginning to build a community of researchers, analysts, and policy makers unified by their involvement in outcome-based science policy. The Center’s location in Washington, DC, facilitates involving Congressional and executive-branch science policy makers in our sphere of activity. Using our website, conventional and electronic newsletters, briefings, and other mechanisms, we are committed to being at the center of national discourse on science, technology, and society.

Education

CSPO takes seriously the long-term value of promoting outcome-based science policy through education and research opportunities. We have already launched programs that bring post-doctoral scholars, graduate research assistants, and undergraduate interns to the Center to participate in research projects and experience the federal policy-making process directly. We are now developing a module for graduate students working in science and engineering to learn about science in society through lectures, seminars, and direct participation in policy activities in Washington, DC. These programs aim at expanding the number of scientists, decision makers, and other citizens who can participate in the development of oucome-based science policies.

CSPO Twenty Year Plan

CSPO’s long-term goal is to catalyze an intellectual and political process whereby outcome-oriented thinking becomes the sine qua non of R&D policy making, and consideration of the societal implications of S&T progress becomes integrated into decision making across the broadest possible range of activities and institutions.

Years 1-5: In the near term, CSPO’s goal is to generate tools, methods, and intellectual products that legitimate outcomes-based R&D policy in both academic and public policy spheres. Successful progress on projects (those described above, as well as new initiatives), which includes dissemination of new knowledge to policy practitioners through publications, oral presentations, formal testimony, workshops, conferences, and the popular press, should provide a sound foundation for expansion of the Center’s activities and influence.

Years 6-10: A major intellectual effort during this second phase will be the development of science and technology outcome maps and indicators that can be used as both planning and assessment tools for R&D policy. Projects from the previous five years will provide a strong knowledge base for developing such tools. Meanwhile, CSPO’s primary political goal will be to normalize the idea of outcome-oriented S&T policy in public discourse through continued dissemination of its ideas and products. Evaluating progress toward this goal will require content analysis of Congressional debate and hearings, Administration documents on S&T, policy papers from the S&T community, and media reports. An additional institutional goal will be to launch a significant, Washington, DC-based educational module aimed at building a community of outcome-oriented R&D policy analysts and scientists.

Years 11-15: CSPO should now have the intellectual and financial resources to become responsive to emerging trends and breakthroughs in S&T, and launch projects as necessary to confront such changes. On the policy front, outcome-oriented R&D policies should begin to be reflected in budgets, legislation, and regulations at the national level, and in the operations and priorities of international organizations as well.

Years 16-20: If CSPO is reasonably successful in achieving its prior goals, it will become recognized as a central node for ideas, policies, data, and education on outcome-based science and technology. In-house staffing would still be modest, but the network of CSPO partners and affiliates should stretch across the globe. Real-world results should be readily apparent in the following areas: R&D budgets should map clearly onto national and global quality-of-life priorities; outcomes-oriented R&D planning functions should be integrated into the broad suite of policy realms across government institutions; research on outcomes of R&D should be integrated into all major, publicly funded S&T efforts; and public support for S&T should be strong and informed, in light of widespread recognition of the responsiveness of R&D to public needs.

Center Organization and Governance

CSPO comprises a small, permanent staff augmented by experts from the sponsoring institution as well as other universities and organizations. In coming years, we visualize adding perhaps three full-time research scholars and support staff as necessary. However, we intend to keep permanent staff small. A continual influx of visiting scholars, post-docs, and graduate students will ensure the maintenance of a fertile intellectual environment. In addition, research teams will be assembled to work on particular projects, with most team members residing primarily at their home institutions but availing themselves of CSPO’s location and resources as necessary. Post-docs and other resident scholars are formally affiliated with the Center.

The formal management structure of the Center is simple, with a chair, a full-time managing director/senior researcher, and a non-resident senior faculty advisor. Two governance boards provide guidance on planning and priority setting, and informal evaluation of Center activities. In the future, evaluation activities will be more formalized and integrated into the Center’s operation. At the same time, it is clear that CSPO will always want to maintain the flexibility to respond to rapid changes at the interface between science and society. Indeed, one important function of an outside advisory capacity is to ensure that such flexibility remains integral to the Center’s organizational structure.

Appendix A: Board of Visitors
Radford Byerly, Jr.
Former Chief of Staff, 
House Science Committee

Linda Capuano
Vice President of E-Business Integration, 
Honeywell Corp.

Edward David
EED, Inc.; Former Director, 
White House Office of Science and Technology Policy

Chris Desser
Coordinator, Funders Working Group on Emerging Technologies 

Kerstin Eliasson
Counselor, Science and Technology, Embassy of Sweden

Helene Gayle
Senior Advisor for HIV/AIDS, Bill and Melinda Gates Foundation
Former Director for the National Center for HIV, STD, and TB Prevention, Centers for Disease Control and Prevention 

Eva Harris
University of California at Berkeley, 
School of Public Health

Harriett Jenkins
Former Assistant Administrator for Equal Opportunity Programs, National Aeronautics and Space Administration ;

Martha Krebs
Former Director of Office of Energy Research, 
US Department of Energy 

Neal Lane
University Professor and Senior Fellow, James A. Baker III Institute for Public Policy, Rice University; Former Director, National Science Foundation; Former Director, White House Office of Science and Technology Policy; Former Science Advisor to President Clinton

Stephen Rattien
Director, Science and Technology Division, 
RAND Corporation 

Gordon Rausser
University of California at Berkeley, 
College of Natural Resources 

Richard Rhodes
Writer and independent scholar

David Robinson
Carnegie Commission on Science, 
Technology and Government 
(retired)

Rustum Roy
Penn State University, 
Intercollege Graduate Program in Materials

Albert H. Teich
Director, Science and Policy Progreams
American Association for the Advancement of Science


Appendix B: Academic Advisory Board
Caron Chess
Rutgers University, 
Department of Human Ecology

David Guston
Rutgers University, 
Bloustein School of Public Policy

David Hart
Harvard University, 
Kennedy School of Government
 

Diana Hicks
CHI Research, Inc.

Dale Jamieson
Carleton College, 
Department of Philosophy

Don E. Kash
George Mason University,
School of Public Policy

Frank Laird
University of Denver, 
Graduate School of International Studies

Emir Jose Macari
Louisiana State University, 
Department of Civil and Environmental Engineering 

Carl Mitcham
Colorado School of Mines,
Division of Liberal Arts and International Studies

Edward Miles
University of Washington, 
School of Marine Affairs

Roger Pielke, Jr.
Environmental and Societal Impacts Group, 
National Center for Atmospheric Research

David Roessner
Georgia Institute of Technology, 
School of Public Policy and SRI International

Richard Rosenbloom
Harvard Business School - Emeritus

Eugene Skolnikoff
Massachusetts Institute of Technology, 
Department of Political Science 

Paula Stephan
Georgia State University, 
Andrew Young School of Policy Studies

Wendy E. Wagner
University of Texas,
School of Law

Appendix C: Center Management, Faculty and Staff
Full Biographical Sketches Available On Request

Chair



Michael M. Crow  (Columbia University)
Professor of Science and Technology Policy
Executive Vice Provost of the University
Ph.D., The Maxwell School, Syracuse University in science and technology policy

Management Committee



Barry L. Bozeman  (Georgia Institute of Technology)
Regents’ Professor of Public Policy, Director, Research Value Mapping Program
Ph.D., Ohio State University in political science

Daniel Sarewitz  (Columbia University)
Managing Director, CSPO, and Senior Research Scholar
Ph.D., Cornell University in geosciences

On-Site and Collaborating Faculty and Staff



Lewis M. Branscomb (Harvard University)
Aetna Professor of Public Policy and Corporate Management, Emeritus, and Emeritus Director of the Science, Technology and Public Policy Program in the Belfer Center for Science and International Affairs at the Kennedy School of Government
Ph.D., Harvard University in physics

Radford Byerly, Jr.
Science policy advisor
Ph.D., Rice University in physics 

Susan Cozzens (Georgia Institute of Technology)
Professor and Chair of the School of Public Policy
Ph.D., Columbia University in sociology

Stephen Feinson (CSPO)
Projects Director
M.A., Fletcher School, Tufts University in law and diplomacy.

Michele Garfinkel  (Columbia University)
Post-Doctoral Research Scholar, CSPO
M.A., George Washington University in science, technology, and public policy 
Ph.D., University of Washington in microbiology

Monica Gaughan (Georgia Institute of Technology)
Assistant Professor, School of Public Policy
Ph.D., University of North Carolina at Chapel Hill in sociology

Aarti Gupta (Columbia University)
Post-Doctoral Research Scholar
M.A., University of Chicago in political science
Ph.D., Yale University in environmental studies (with a focus on global technology governance)

Charles Herrick  (Stratus Consulting, Inc.)
Faculty Affiliate 
Ph.D., American University in public policy

Gerald Holton (Harvard University)
Mallinckrodt Professor of Physics and Professor of the History of Science, Emeritus
Ph.D., Harvard University in physics

Deborah Johnson  (Georgia Institute of Technology)
Professor and Director of the Program in Philosophy, Science and Technology
Ph.D., University of Kansas in philosophy 

Philip Kitcher (Columbia University)
Professor of Philosophy
Ph.D., Princeton University in philosophy/history and philosophy of science

Frank Laird  (University of Denver)
Associate Professor of Technology and Public Policy
Ph.D., Mass

Wil Lepkowski  (CSPO)
Journalist in Residence
Former Senior Correspondent, Chemical and Engineering News
M.S., Ohio State University in biochemistry

Richard Nelson  (Columbia University)
George Blumenthal Professor of International and Public Affairs
Ph.D., Yale in economics 

Roger Pielke, Jr.  (National Center for Atmospheric Research)
Scientist III, Environmental and Societal Impacts Group 
Ph.D., University of Colorado in political science 

Alan Porter  (Georgia Institute of Technology)
Professor, School of Industrial & Systems Engineering and Director, Technology Policy and Assessment Center
Ph.D., University of California, Los Angeles in engineering psychology

Steve Rayner  (Columbia University)
Professor, International and Public Affairs
Director, Program in Environmental Policy Studies 
Ph.D., University College of London in anthropology

Bhaven Sampat (Georgia Institute of Technology)
Assistant Professor, School of Public Policy
Ph.D., Columbia University in economics

Amy Schultz  (CSPO)
Projects Manager
B.A., Oberlin College in English

Anne Smith  (CSPO)
Projects Specialist
B.A., College of the Holy Cross in chemistry 

Gerhart Sonnert (Harvard University)
Research Associate, Department of Physics, and Senior 
 Lecturer at Lesley College
Ph.D., University of Erlangen-Nurnberg in sociology

Nicholas J. Turro (Columbia University)
William P. Schweitzer Professor of Chemistry and Co-Chair, Department of Chemical Engineering & Applied Chemistry
Ph.D., California Institute of Technology in chemistry

Wendy E. Wagner  (University of Texas)
Professor, School of Law
J.D., Yale University

Elke Weber  (Columbia University)
Professor, Department of Psychology and Graduate School of Business and Director, Center for the Decision Sciences
Ph.D., Harvard University in psychology

Neal W. Woodbury (Arizona State University)
Professor, Department of Chemistry & Biochemistry
Ph.D., University of Washington in biochemistry

Edward J. Woodhouse  (Rensselaer Polytechnic Institute)
Associate Professor, Science and Technology Studies
Ph.D., Yale in political science

Appendix D: Selected Center Publications

Books



Crow, Michael and Barry Bozeman. 1998.  Limited By Design. New York: Columbia University Press.

Guston, David. 2000. Between Politics and Science:  Assuring the Productivity and Integrity of Research.  Cambridge: Cambridge University Press.

Sarewitz, Daniel, Roger Pielke, Jr., and Radford Byerly, Jr. (eds.) 2000.  Prediction: Science, Decision Making, and the Future of Nature. Covelo, CA: Island Press.

Sarewitz, Daniel. 1996. Frontiers of Illusion: Science, Technology and Politics of Progress. Philadelphia:  Temple University Press.

Articles and Book Chapters


Agrawala, Shardul, Kenneth Broad, and David H. Guston.  In press. "Challenges to an Emergent Boundary Organization: Integrating Climate Forecasts and Societal Decision Making." Science, Technology & Human Values 26(3).

Bozeman, Barry. In press. "Public Value Failure: 'When Efficient Markets May Not Do.'" Public Administration Review.

Bozeman, Barry. 2001. "Expanding the Mission of State Economic Development."Issues in Science and Technology XVII(2, Winter): 33-36.

Bozeman, Barry. 2000. "Technology and Economic Development for Whom? The Prospects for 'Dual Agenda' State Programs." In Nelson, Stephen, Albert  Teich, Celia McEnaney, and Stephen J. Lita (eds.) AAAS Science and Technology Policy Yearbook 2000.  Washington, DC: AAAS.

Bozeman, Barry. 2000. "Technology Transfer and Public Policy: A Review of Research and Theory." Research Policy 29(4-5): 627-655.

Garfinkel, Michele. 2000. "Biomedical Gerrymandering."  Recent Science Newsletter 2(2): 4-7.

Garfinkel, Michele. 2000. "High Stakes in Stem Cell Research." Cerebrum 2: 97-112.

Guston, David H. 2001. "Integrity, Responsibility, and Democracy in Science." SciPolicy: A Journal of Science and Health Policy 1(2).

Guston, David H., E. J. Woodhouse, and Daniel Sarewitz. 2001. "A Science and Technology Policy Focus for the Bush Administration." Issues in Science and Technology XVII(3, Spring): 29-32.

Guston, David H. 2000. "Retiring the Social Contract for Science." Issues in Science and Technology XVI(4, Summer): 32-36.

Guston, David H. 1999. "Stabilizing the Boundary Between Politics and Science: the Role of the Office of Technology Transfer as a Boundary Organization." Social Studies of Science 29: 87-112.

Guston, David H. 1999. "Technology Transfers and the Implementation of CRADA's at the National Institutes of Health." In Lewis Branscomb (ed.) Investing in Innovation. Boston: MIT Press.

Herrick, Charles and Daniel Sarewitz. 2000. "Ex Post Evaluation: A More Effective Role for Scientific Assessments in Environmental Policy." Science, Technology, and Human Values 25: 309-331.

Pielke, Roger, Jr., and Daniel Sarewitz. 2000. "Anyone for Global Warming? The Inexact Science of Climate Predictions." Washington Times (February 2): A18.

Pielke, Roger, Jr., Roberta Klein, and Daniel Sarewitz. 2000. "Turning the Big Knob: Energy Policy as a Means to Reduce Weather Impacts." Energy and Environment 11(3): 255-275.

Sarewitz, Daniel and Roger Pielke, Jr. 2000. "Breaking the Global Warming Gridlock." Atlantic Monthly July: 54-64.

Sarewitz, Daniel. 2000. "Human Well-Being and Federal Science—What's the Connection?" in D. Kleinman (ed.) Science, Technology, and Democracy. New York: SUNY Press.

Sarewitz, Daniel. 2000. "Science and Environmental Policy: An Excess of Objectivity." In Robert Frodeman (ed.) Earth Matters: The Earth Sciences, Philosophy, and the Claims of Community. Upper Saddle River, NJ: Prentice Hall.

Sarewitz, Daniel. 2000. "Death Takes No Holiday." Book review, Journal of Health Politics, Policy and Law 25: 988-991.

Sarewitz, Daniel. 1997. "Social Change and Science Policy," Issues in Science and Technology XIII(4, Summer): 29-32.

Reports


The Keystone Center and the Center for Science, Policy, and Outcomes. 2000. New Roles for Science in Environmental Decision Making: Discussion Paper. Based on July 13-14, 2000, Meeting of the Study Group on Science and Environmental Decision Making, March 2000.

Sarewitz, Daniel, and Roger Pielke, Jr. 2000.  XE: Extreme Events:  Developing a Research Agenda for the 21st Century. Report of the Center for Science, Policy, & Outcomes and the National Center for Atmospheric Research Environmental and Societal Impacts Group workshop, June 7-9, 2000.

Schultz, Amy and Daniel Sarewitz (eds.). 2000. Science the Endless Frontier 1945-1995: Learning from the Past, Designing for the Future. Highlights from the Columbia University Conference Series.  http://www.cspo.org/products/conferences/bush

References
1First inaugural address (1953)
2Visions of Technology (Simon and Schuster, 1999)
3Wired (April 2000)
4Science (January 21, 2000)
5Science (May 8, 1998)
6World Health Organization, The World Health Report 2000 - Health systems: Improving performance.