Framework for participative reflection on the accomplishment of transdisciplinary research programs
Introduction
In a world of competing proposals to tackle complex problems with limited research funds, there is growing pressure to demonstrate the contribution of research to society. The public funding of research is increasingly viewed much like any other business investment (Ziman, 1996, Etzkowitz, 2003), requiring tight accountability against a range of performance criteria. Accordingly, the quantitative evaluation of research has emerged as a central practice for determining individual performance of researchers, the quality and effectiveness of research programs and the scientific standing of whole organizations (Gibbons and Georghiou, 1987).
While research in many fields lends itself to traditional cost:benefit or return on investment analysis, (Bozeman and Melkers, 1993, Kerssens-van Drongelen and Bilderbeek, 1999, Salter and Martin, 2001, Ruegg and Feller, 2003), this is difficult in the arena of natural resource management due to long time lags between intervention and response, large spatial scales, multiple interacting drivers of change and resources held and managed as common property. The non-linear interdependencies that occur at multiple scales and the unknown thresholds of system change that are typical of most natural resource management issues lead to an inevitable level of “irreducible uncertainty” (Walker and Salt, 2006), which makes evaluation particularly challenging.
Natural resources such as water and biodiversity are essentially embedded in social systems, which are typified by a range of stakeholders with very different values, expectations and time horizons (Pahl-Wostl and Hare, 2004). In addressing the management of multi-stakeholder social–ecological systems, we are faced with problems or issues that cannot be confined to a single spatial scale or timeframe. Causes and effects tend to be connected across spatial and temporal scales in often non-linear relationships. Examples include the effects of: land use and nutrient dynamics in a catchment on the tropic status of a water body (Carpenter et al., 1999); population density of elephants on the structure of savanna vegetation (Scholes and Mennell, 2008); and deforestation and irrigation regimes on the salinity and level of a groundwater table (Walker and Salt, 2006). Such non-discreet issues are not amenable to simple solutions brought about by disciplinary research projects. Researchers may have to seek answers and integrate concepts from across natural and social science disciplines. Furthermore, to successfully address diverse stakeholder values, an acceptable solution may not be in the form of “the right answer” but rather in the form of a negotiated outcome. Research accomplishment in the broad social–ecological context may be more important than whether or not a particular project or program successfully achieved its objectives.
Accordingly, scientists are expanding their research approaches to social–ecological issues in order to increase their effectiveness in society as a whole (Lubchenco, 1998, Nowotny et al., 2001, Gallopin et al., 2001). To this end, a number of relatively new and somewhat overlapping research paradigms are emerging. These paradigms essentially ask something new of science in terms of its relationship with society. Notable examples are post-normal science, sustainability science, interdisciplinary studies and transdisciplinary studies.
In broad terms, post-normal science seeks to address issues in society associated with substantial uncertainty and high decision stakes, and to do so in close collaboration with non-scientist stakeholders (Funtowicz and Ravetz, 1993, Rogers, 2008, Francis and Goodman, 2010). Sustainability science aims to bridge divides between disciplines and between producers and users of knowledge, with a focus on human–environment relationships and the advancement of sustainable development at multiple scales (Clark and Dickson, 2003, Komiyama and Takeuchi, 2006, Burns and Weaver, 2008). Interdisciplinary studies are concerned with addressing topics or problems that are too broad and complex to be dealt with by a single discipline and in the process draw on, integrate and synthesize insights from different disciplines to produce a more comprehensive understanding or conceptual advancement (Newell, 2001, Klein, 2004, Repko, 2008). Transdisciplinary studies incorporate interdisciplinary integration and add additional research dimensions by (a) addressing problems that are user inspired and context driven; (b) embracing complexity; and (c) acknowledging and incorporating multi-stakeholder perspectives and values (Nicolescu, 2002, Lawrence and Despres, 2004, Max-Neef, 2005, Hirsch Hadorn et al., 2008). The mentioned approaches are meant to be complementary to, and not replace, disciplinary research. Although significant overlap of purpose exists between these emerging research paradigms, for this paper we use the term, and build on the concept of, transdisciplinary research.
A key characteristic of transdisciplinary research is that the domains of science, management, planning, policy and practice are interactively involved in issue framing, knowledge production and knowledge application. To achieve co-evolution of understanding, alignment of purpose and harmonized action across these domains, substantial cooperation and management effort is required at the core of the research project (Hollaender et al., 2008). If we are to seriously embrace transdisciplinary research, and in particular want to foster an effective inter-domain research partnership, how do we effectively embed domain-inclusive learning and adaptation as part of current transdisciplinary practice?
While the ultimate achievement of transdisciplinary research might be changed practice based on well tested evidence whose value to society exceeds the cost of enquiry, this cannot be assessed for several years after a particular research program has come and gone. Conventional project evaluations seem to fall short of what is required for transdisciplinary research, in part because of the latter's multi-domain nature, the imperative of (and uncertainties around) implementing new knowledge and relatively long and uncertain time scales for realizing “impact”.
In this paper we draw from our experience in diverse projects related to evaluating the impact of research. Whilst acknowledging that conventional impact evaluations have their place, we recognize a need to facilitate inter-domain learning and adaptation towards more effective practice of transdisciplinary research. To this end we propose participative reflection as a complementary activity to evaluation. We present a framework for reflecting on the broader accomplishment of transdisciplinary studies from the perspective of researchers, funders and the users of the research. The framework should be used to facilitate co-reflection during the course of a transdisciplinary research project/program in order to help shape the processes, behaviors and relationships required for achieving the ultimate goal. We discuss how our framework and an associated process of co-reflection could promote social learning and broad accountability across researcher, funder and end user domains.
Section snippets
From impact evaluation to co-reflection
The authors of this paper are scientists who have had research contracts with a variety of funding agencies and have a collective experience spanning the fields of sustainable agriculture, nature conservation and water resource management, as well as contextual settings from two continents. Most of these contracts operated over 2–4 years, involved a few scientists in closely related disciplines and addressed focused problems. More recently we have been involved in a number of inter- and
Social learning
For the program partners to progress along the contextual continuum from research only to research within a social–ecological implementation context means we must progress along the continuum from single-, multi- and interdisciplinary research to working in transdisciplinary teams. Disciplinary research represents specialization in isolation. Multidisciplinarity is about extracting congruent parts from several disciplines useful to addressing a social–ecological issue. Interdisciplinary
Broad accountability
If researchers, funders and end users commit to a process of co-reflection and transdisciplinary learning, accountability is broadened beyond the contractual agreement that accompanies most research projects and programs. Co-reflecting on the indicators in Table 1 will serve as a catalyst for funders, providers and users of research to debate and ultimately better understand each other's accountabilities, reward structures and operational procedures – all within the context of their collective
Discussion and conclusion
The organization of scientific research into disciplines has certainly contributed to its systematic knowledge-production ability. Transdisciplinary research is however necessary when addressing “wicked” problems where fact and value are mixed, issues are embedded in specific social and ecological contexts, and there are no obviously right answers. Transdisciplinarity essentially makes a shift in emphasis from research as the producer of information, to research as an active contributor to a
Acknowledgements
The development of this paper originated from a CSIRO fellowship granted to Dirk Roux, for working with CSIRO Land and Water in Canberra during the last quarter of 2008. The authors gratefully acknowledge the comments of Gerhard Backeberg as well as three anonymous reviewers on an earlier version of the manuscript.
Dirk Roux is an aquatic scientist with 20 years of experience in studies related to the assessment, management and conservation of freshwater ecosystems. His current research areas include a focus on institutional capacity for the effective management and conservation of freshwaters, including processes of learning and cooperation across disciplines, organizations and science-policy domains. He is a Director of the Water Research Node at Monash South Africa, a joint venture of Monash University
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Dirk Roux is an aquatic scientist with 20 years of experience in studies related to the assessment, management and conservation of freshwater ecosystems. His current research areas include a focus on institutional capacity for the effective management and conservation of freshwaters, including processes of learning and cooperation across disciplines, organizations and science-policy domains. He is a Director of the Water Research Node at Monash South Africa, a joint venture of Monash University and the International WaterCentre.
Richard Stirzaker is a Principal Research Scientist at CSIRO Land and Water in Canberra Australia. His main research interests include irrigation, salinity and solute movement, agroforestry, participative learning and the ecological footprint of agriculture. He is an honorary professor in the Department of Natural and Agricultural Sciences of the University of Pretoria.
Charles Breen is a Senior Research Fellow at the University of KwaZulu-Natal. His research over the past 40 years has focused on aquatic systems and their relationships with society. He is currently contributing to a regional collaborative research program that addresses benefit sharing in social–ecological systems.
Ted Lefroy is an agricultural scientist who worked in rural extension in Australia and Papua New Guinea for 15 years before taking up a research career focused on the environmental consequences of agriculture. In 2005 he was appointed Director of the Centre for Environment at the University of Tasmania from where he leads the research partnership Landscape Logic which is using data mining, landscape experiments and social research to understand the effectiveness of public investment in natural resource management.
Hamish Cresswell is a soil physicist whose primary research areas include interactions between agricultural land use and soil water, land use planning, soil water balance measurement and modeling, and measurement and prediction of soil hydraulic properties. He has led participative research assimilating knowledge on land resource assessment, surface water hydrology, salinity and groundwater, biodiversity restoration, and agricultural production into spatial catchment land use options. He leads the Soil and Landscape Science research program at CSIRO Land and Water.