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I. RESEARCH AND WRITING

(9/01)

I.A The Limits of Ecology

The centerpiece of my writing during my three years at UMB has been completion of a book manuscript, The Limits of Ecology and the Re/construction of Unruly Complexity, and related papers in critical thinking about ecological and socio-environmental research in its social context.[2] The manuscript, which synthesizes key elements of the research and publication I undertook before coming to UMB, was prepared under contract with the University of Chicago Press and submitted for review mid-July.

The case studies in The Limits are intended to stimulate readers' thinking in three broad areas: the study of complex ecological interactions; the interpretation of social influences shaping science; and efforts to feed interpretations of science back into changing scientific practice. In all three areas I explore the limitations of theories and models that treat complex situations as well-bounded systems that can be understood or managed from an outside vantage point. I propose instead that researchers take positions of engagement within "unruly" complexities that involve diverse components or agents and span a range of spatial and temporal scales. Knowledge production needs to be linked with planning for action and action itself in an ongoing process so that knowledge, plans, and action can be continually reassessed in response to developments--predicted and surprising alike.

The distinctive contribution I make in The Limits is to integrate conceptual, contextual, and reflexive angles on the practice of science and to explore rather than suppress the resulting complexity. I encourage people interested in various areas of ecology and socio-environmental research (ES), social studies of science and technology (STS), and critical thinking about science and ES to: Many of the expository and conceptual moves I make to reach a multi-disciplinary audience are grounded in my science-STS classes and workshops. Although the integrated analysis in The Limits is built up through the case studies, I also introduce a series of puzzles, heuristic propositions, "tensions," and open questions. In the spirit of constructivism (in the educational sense of the term), these provide food for readers from various fields to chew on--I am not asking them to digest "the main course" in one sitting. One of the tensions that still animates my science-STS teaching is as follows.

My favored approach to STS is what I call "heterogeneous constructionism," that is, exposing the diverse "resources" researchers mobilize to establish knowledge--from funding opportunities to metaphors, from status hierarchies in their field to available sources of data. (This is a form of social constructionism--in the interpretive sense of the term--which is akin to actor-network theory but does not ascribe agency to non-humans.) In this kind of analysis, one has to address a wide array of relevant social agents, resources they mobilize, and possible points of engagement and reconstruction. Yet simple themes, such as "Population growth will lead to environmental degradation," are easier to communicate to a general audience than particular reconstructions of the complexity in environmental situations or in the social context of researchers. In that sense, such simple themes are resources that provide the basis for effective social mobilization--whether at the level of global environmental politics or, more modestly, at the level of teaching students and influencing colleagues. However, as I show in The Limits, simpler, more memorable, and adaptable accounts are only apparently simple. Their impact and importance depends on the ways they are linked to other resources by scientists and other agents who are negotiating how to contribute to changing knowledge, society, and ecology.

My response to the tension between developing complex accounts and invoking simple themes is to present situations or scenarios that are readily communicated yet, at the same time, point to the complexity is moved to the background in the attempt to communicate to others. For example, I often run a classroom simulation involving population growth in two islands--one with equal distribution of resources; the other with three unequal social classes. The theme or heuristic that emerges is that the analysis of causes and their implications can qualitatively change if equal units (of population) are replaced by unequal units (social classes) interconnected through various social, political, and economic dynamics. Such critical tensions or heuristics are intended to have broad application and open up important questions yet not require everyone to deal with particular cases whose detail only a specialists could absorb.[3] The need for further work on this approach and on other pedagogical, practical, and conceptual questions opened up by The Limits motivates the projects described in the section that follow.

I.B Concurrent and Prospective Educational Projects

It was important while completing The Limits also to explore the opportunities, needs, and constraints of my new location in an educational program and college. I present below the rationale, progress to date, and future plans for four projects that involve research, writing, and reflective practice in science-STS education. Deciding which will have priority for the coming years depends on as-yet-unresolved issues about the future institutional location, expectations, and workload for CCT and myself at UMB (see sects. III.D and IV).

I.B.1 Fostering Critically Reflective Practice, especially among Ecologists and Socio-Environmental Researchers

The Limits describes two pilot workshops from the late 1980s in which I led scientists to "map" their social context as it affected their study of ecological and environmental situations.[4] The goal was that participants would identify multiple potential sites of engagement and change for themselves, but this was only partially realized. This experience opened up questions about the kinds of reflection, dialogue, and workshop interaction that contribute most to scientists modifying the situations in which they undertake research. I have explored these questions since the mid-1990s through training in facilitation and group process, participation in interdisciplinary workshops, and experimentation in my own teaching and workshop leading (sect. II).[5] Although I am drawing on this experience in presentations that I will develop into publications,[6] my current plan is to pursue the questions primarily as applied scholarship, that is, to continue leading interdisciplinary workshops in ES and CCT/Reflective Practice and consulting on the development of interdisciplinary ES programs.

In a similar spirit, but with a different audience, I collaborated with CCT colleagues Nina Greenwald and Arthur Millman last fall to establish a Thinktank for Community College Critical Thinking Teachers. Subsequently I received a UMB Public Service Grant to continue the Thinktank and to construct a web-site of techniques and illustrative cases that CCT faculty and Thinktank members use to foster critical and creative thinking and reflective practice.[7] Teachers and College faculty will be encouraged to draw from the web-site for their own curriculum development and provide feedback towards eventual publication of a Thinking for Change Fieldbook.

I.B.2 Social Constructions of Life

Through teaching science-STS courses over the last decade I have generated extensive notes on almost thirty cases that introduce and illustrate: a) the use of "critical tensions" to promote understanding and critical thinking by placing established facts, theories, and practices in tension with alternatives; and b) the analysis of "heterogeneous construction," that is, of the diverse resources that scientists harness in establishing theories and in their work more generally. These cases cover selected historical and contemporary developments in the life and environmental sciences, ranging from accounts that invoke natural selection to support views about society to computer modeling of global climate change. The cases explore different connections between science and four strands of social life: scientists' use of language; their social/historical location; their political and economic interests; and their views of causality and responsibility. This "reciprocal animation" of science and interpretation of science breaks down the barriers between the natural sciences, the social sciences, and the humanities.

I plan to produce a text, Social Constructions of Life, and a web-site of associated pedagogical material to promote critical thinking about the reciprocal relationships between developments in the life sciences and changes in society. I intend the text and website combination both to reach a wider readership in biology and STS and to contribute to bringing STS into science education and science into liberal arts education. While completing The Limits I have kept this project moving by delivering presentations at conferences and workshops, completing publications for less specialized audiences,[8] and preparing two new cases.[9] My immediate plan is to complete a subset of the cases each time I have the opportunity to teach science-STS courses, revise them with student input, and make them available on a web-site[10] until I am ready to submit the text to a publisher.

I.B.3 Action Research on Science-STS teaching

From my experience teaching science-STS courses to college science students I believe that placing developments in science and technology in their social context can lead to deeper, more complex understanding and to more active inquiry not only in college science education, but also in high school education and in citizen involvement in scientific debates. To persuade other educators I need to disseminate cases and evaluate the conditions under which science-STS education can be successfully implemented. A necessary preliminary step in this project has to be connecting with college faculty and teachers willing to bring STS into their science and environmental curricula. With this end in mind, I convened a working group for teacher and faculty development in spring 1999 and have followed this with workshops each summer since.[11] (A seed grant for this was secured from STEMTEC, the Science, Technology, Engineering, Mathematics Teacher Education Collaborative of colleges and universities in Western Massachusetts.)

As it has turned out, college faculty members have been the main participants and, at that level, I am happy with my progress. I have been invited by the BioQuest curriculum development consortium to co-organize a biology-in-society component in BioQuest's annual 9-day faculty development workshop in June 2002. Last July I consulted with the relevant Program Officer at the Fund for the Improvement of Post-Secondary Education about submitting a proposal to host and evaluate further workshops--including, I hope, workshops with UMB science and general education faculty--and to disseminate in other ways cases, such as those from Social Constructions of Life. The workshops would also address methods for science-STS teaching and material on institutional change needed to support faculty in teaching innovation.

At the level of school education, however, it has been more difficult to establish a base for science-STS teaching. The number of trainee or in-service teachers studying in CCT or GCOE who focus on science at the middle or secondary levels is small and it will be a longterm project to recruit sizable cohorts (see sect. III). Recent changes in the Massachusetts Curriculum Frameworks and a heightened emphasis on testing have tended to inhibit curricular innovation. "Science, Technology and Human Affairs," which was one of the four dimensions of these Frameworks for Science, now appears only in an appendix and is not represented in the tests.

Against this background, I jumped at an opportunity to participate this last school year as co-PI and instructor in a Eisenhower Program course for middle or secondary-school math and science teachers, which promoted inquiry and problem-solving using watershed issues. The teachers produced exciting new units, but were very pragmatic about the changes they could find space and time for. The experience of this course taught me that I would need a longer-term and closer involvement with in-service teachers to encourage them to make use of my framework for critical thinking about the life and environmental sciences.

I now see a sustainable contribution at the K-12 level along lines similar to those of STEMTEC. By promoting "student-active" or inquiry-based approaches to undergraduate science education, STEMTEC hopes to stimulate more students to stay on science tracks and to see teaching as a worthwhile profession. STEMTEC efforts at the college level are designed to contribute indirectly to a much-needed increase in the number of K-12 science teachers. In the same spirit, although I am open to direct involvement in bringing science-STS into secondary schools, my current plan is to concentrate on science-STS curricular and faculty development at the college level.

I.B.4 The Study of Complex Interactions in the area of Environment, Health, and Society

To reach general audiences I use heuristics and themes for critical thinking with broad application (see end of sect. I.A above on The Limits). At the same time, however, I need to keep these in tension with the real-world complexities of specific scientific practice. To pursue questions opened up in The Limits I have begun to consider various ways complex interactions are studied in the area of environment and health. This shift to epidemiological cases from the research on rural and third-world situations considered in The Limits should facilitate day-to-day engagement with scientists and continue to make use of my skills in quantitative areas of science.

Before coming to UMB, I submitted a STS research proposal to NSF in the area of environment, health, and society. I was asked to make revisions, which I will have a chance to do this fall (using UMB Healy grant support) now that the book manuscript has been submitted. The NSF proposal concerns the intellectual history, current concerns, and reception of the fields of "gestational programming" and "life events and difficulties." These two cases allow me to bring more attention to the complexities of the concept "environment" and enrich discussion in this "Age of DNA" about environmental contributions to the development of behavioral and medical conditions over an individual's lifetime.[12] Through this study I also hope to find a suitable site and collaborators for specific research on the "heterogeneous construction" of epidemiological knowledge and policy and for continuing to link critical thinking with reflective practice in science.
Notes
[2] "Mapping complex social-natural processes" (1999), "What can agents do?' (1999), "Socio-ecological webs" (2000), "Distributed agency" (2001), "Whose trees are these?" (in press), "Situatedness and Problematic Boundaries" (in press), "Non-standard lessons" (in press), "Hidden Complexity" (under review). Publications and presentations that are abbreviated in these footnotes are given in full in my curriculum vitae. cited.

[3] "Non-standard lessons" (in press)

[4] "Mapping workshops" (1989) and "Mapping ecologists' ecologies" (1990).

[5] Workshop presentations: "Alternating between teacher and facilitator" (2000), "Critical Incidents in Teaching" (2000), "Building a Professional development Learning Community" (2000). Workshop facilitation: "How does nature speak?" (2000), "Helping Each Other..." (2000, 2001).

[6] "Process and product" (presentation, 2000), "Intersecting Processes and Reflexive Practitioners" (commentary, 2001), "We know more" (work in progress)

[8] "Natural selection" (1998), "How does the commons become tragic" (1998) reworked into "Non-standard lessons" (in press). See also the first sections of "Building on Construction" (1995) excerpted in "Distributed agency" (2001) and "How do we know?" (1997).

[9] "Genes, gestation" (work in progress)

[11] "Science-in-society, Society-in-science" (1999), "Helping each other..." (2000, 2001), "Teaching History, Philosophy, and Social Studies of Biology" (2001).

[12] "Genes, gestation" (work in progress)


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