| Literature DB >> 30174744 |
Tuck Fatt Siew1, Thomas Aenis2, Joachim H Spangenberg3,4, Alexandra Nauditt5, Petra Döll1, Sina K Frank6, Lars Ribbe5, Beatriz Rodriguez-Labajos7, Christian Rumbaur8, Josef Settele3,9, Jue Wang2.
Abstract
Transdisciplinary research (TDR) aims at identifying implementable solutions to difficult sustainability problems and at fostering social learning. It requires a well-managed collaboration among multidisciplinary scientists and multisectoral stakeholders. Performing TDR is challenging, particularly for foreign researchers working in countries with different institutional and socio-cultural conditions. There is a need to synthesize and share experience among researchers as well as practitioners regarding how TDR can be conducted under specific contexts. In this paper, we aim to evaluate and synthesize our unique experience in conducting TDR projects in Asia. We applied guiding principles of TDR to conduct a formative evaluation of four consortium projects on sustainable land and water management in China, the Philippines, and Vietnam. In all projects, local political conditions restricted the set of stakeholders that could be involved in the research processes. The set of involved stakeholders was also affected by the fact that stakeholders in most cases only participate if they belong to the personal network of the project leaders. Language barriers hampered effective communication between foreign researchers and stakeholders in all projects and thus knowledge integration. The TDR approach and its specific methods were adapted to respond to the specific cultural, social, and political conditions in the research areas, also with the aim to promote trust and interest of the stakeholders throughout the project. Additionally, various measures were implemented to promote collaboration among disciplinary scientists. Based on lessons learned, we provide specific recommendations for the design and implementation of TDR projects in particular in Asia.Entities:
Keywords: Evaluation; Interdisciplinarity; Knowledge co-production and integration; Land and water management; Sustainability problems; Transdisciplinarity
Year: 2016 PMID: 30174744 PMCID: PMC6106092 DOI: 10.1007/s11625-016-0378-0
Source DB: PubMed Journal: Sustain Sci ISSN: 1862-4057 Impact factor: 6.367
Fig. 1Knowledge co-production and integration among scientists within a transdisciplinary research project with knowledge of other scientists and stakeholders from the project area. Within each group, interdisciplinary and cross-sectoral knowledge integration, respectively, is facilitated by scientists responsible for knowledge integration using inter-/transdisciplinary methods. The colour shades of the big circles indicate integration of knowledge of scientists and stakeholders from the project area (green) and outside of the project area (purple). (Note: A number of scientists have interdisciplinary background)
Fig. 2Transdisciplinary research projects conducted in China (SuMaRiO, SURUMER), Vietnam (LEGATO, LUCCi), and the Philippines (LEGATO)
Overview of four transdisciplinary research projects in China, Vietnam, and the Philippines
| 1 SuMaRiOa | 2 SURUMERb | 3 LEGATOc | 4 LUCCid | |
|---|---|---|---|---|
| Project region | Northwest China (Xinjiang Uyghur Autonomous Region) | South China (Yunnan Province) | North and South Vietnam, Luzon Island in the Philippines | Central Vietnam |
| Goal | To support oasis management along the Tarim River under conditions of climatic and societal changes | To develop an integrative, applicable, and stakeholder-validated concept for sustainable rubber cultivation in southern Yunnan | To develop concepts of landscape scale management and ecological engineering practices, contributing to the sustainable development of irrigated rice cultivation in Southeast Asia | To provide a scientific basis for the development of sustainable land use and water management strategies considering socio-economic development, population growth, and impacts of climate change on land and water resources |
| Project focus | Phase 1: Analysis of streamflow under climate change, water demand and biomass production, ecosystem functions and services, and socio-economic assessment | Phase 1: Situational analysis of ecosystem functions and services (multidisciplinary focus) | Preparation phase: Identification of relevant issues and experimental sites jointly with stakeholders | Preparation phase: Identification of relevant issues with stakeholders |
| After project start: Integrated modelling and scenario development (regional climate change scenarios, GHG emission estimates and carbon stock changes; flood, drought and salt water intrusion; distribution of biodiversity patterns; impact of land use changes on water resources). Based on modelling results and scenarios land use planning and water management strategies are developed and implemented. Stakeholders were involved in data collection and scenarios and strategies development | ||||
| Phase 1: Intensive communication, stakeholder discourses for co-generation of target knowledge, adaptation of research questions, data gathering | ||||
| Phase 2: Integration of findings into new land use concepts (interdisciplinary focus) | ||||
| Phase 3: Transfer of scientific concept into practical land use and policies. | Phase 2: Disciplinary-based information distillation, processing and evaluation; communication of results with stakeholders | |||
| Throughout the project: stakeholder discourses focused on mutual situational analysis, participatory scenario development, and discussion of trade-offs | ||||
| Phase 3: Application, dissemination and implementation | ||||
| Targeted output | Improved knowledge about the relation between water allocation and ecosystem services, and on impact of climate change on water resources; concepts and recommendations; a decision support tool for supporting land and water management that takes ecosystem services into account | Improved management concepts, land use policies, strategies, measures | Development of sustained use of landscape scale management and ecological engineering (EE) concepts, demonstration of EE benefits leading to further diffusion of EE practices and co-generated knowledge, enhanced informal lower level exchange | Concepts and strategies for sustainable land and water management available for scientists and decision makers in form of Integrated Modeling and Decision Support System (DSS VGTB), River Basin Information System (RBIS), and River Basin Information Center (RBIC) |
| Number of collaborating universities and research institutes within the project | 19 (11 in Germany, 8 in China) | 18 (9 in Germany, 9 in China) | 22 (11 in Germany, 2 in the Philippines, 4 in Vietnam, 1 in Spain, 1 in United Kingdom, 1 in Bulgaria, 2 international organisations) | 14 (6 in Germany, 5 in Vietnam, 3 international organization |
| Number of institutional stakeholders from the project area involved (those not within the project). I: universities and research institutes; O: organizations from outside academia | I: 7 | I: 3 | I: 15 | I: 5 |
| O: 21 | ||||
| O: 10 | ||||
| O: approx. 20 (changing over time) | ||||
| O: 8 |
aSustainable management of river oases along the Tarim River, Northwest China (http://www.sumario.de; Rumbaur et al. 2015)
bSustainable rubber cultivation in the Mekong Region—development of an integrative land-use concept in Yunnan Province, Southwest China (https://surumer.uni-hohenheim.de/)
cLand-use intensity and ecological engineering—assessment tools for risks and opportunities in irrigated rice based production systems, Vietnam and the Philippines (http://www.legato-project.net; Settele et al. 2013)
dLand-use and climate change interactions in the Vu Gia Thu Bon River Basin, Vietnam (http://www.lucci-vietnam.info)
Transdisciplinary research phases and the pertaining questions for guiding evaluation (modified from Lang et al. 2012)
| Transdisciplinary research phase | Guiding question |
|---|---|
| Phase A preparation | |
| A.1 Build a collaborative research team (scientists + stakeholders) | Does the project team include all relevant expertise, experience, and other relevant ‘‘stakes’’ needed to tackle the sustainability problem in a way that provides solution options and contributes to the related scientific body of knowledge? |
| A.2 Create joint understanding and define the sustainability problem to be addressed | Does the project team reach a common understanding of the sustainability problem to be addressed and does the team accept a joint definition of the problem? |
| A.3 Collaboratively define the boundary/research object, research objectives as well as specific research questions, and success criteria | Is a common research object or guiding question, with subsequent specified research objects and questions, formulated, and do the partners agree on common success criteria? |
| A.4 Design a methodological framework for collaborative knowledge production and integration | Does the project team agree upon a jointly developed methodological framework that defines how the research target will be pursued in Phase B and what transdisciplinary settings will be employed? Does the framework adequately account for both the collaboration among the scientific fields and with the practice partners? |
| Phase B research | |
| B.1 Assign and support appropriate roles for practitioners and researchers | Are the tasks and roles of the actors from science and practice involved in the research process clearly defined? |
| B.2 Apply and adjust integrative research methods and transdisciplinary settings for knowledge generation and integration | Does the research team employ or develop methods suitable to generate solution options for the problem addressed? Does the team employ or develop suitable settings for inter- and transdisciplinary cooperation and knowledge integration? |
| Phase C application | |
| C.1 Realize two-dimensional integration | Are the project results implemented to resolve or mitigate the problem addressed? Are the results integrated into the existing scientific body of knowledge for transfer and scaling-up efforts? |
| C.2 Generate targeted products for both parties | Does the research team provide practice partners and scientists with products, publications, services, etc. in an appropriate form and language? |
| C.3 Evaluate scientific and societal impact | Are the goals being achieved? What additional (unanticipated) positive effects are being accomplished? |
| Cutting across the three phases | |
| D.1 Facilitate continuous formative evaluation | Is a formative evaluation being conducted involving relevant experts related to the topical field and transdisciplinary research (throughout the project)? |
| D.2 Mitigate conflict constellations | Do the researchers/practitioners prepare for/anticipate conflict at the outset, and are procedures/processes being adopted for managing conflict as and when it arises? |
| D.3 Enhance capabilities for and interest in participation | Is adequate attention being paid to the (material and intellectual) capabilities that are required for effective and sustained participation in the project over time? |
Category of stakeholders involved in the four transdisciplinary research projects in China, Vietnam, and the Philippines
| Types of stakeholders | SuMaRiO | SURUMER | LEGATO | LUCCi |
|---|---|---|---|---|
| Government | Yes | Yes | Yes | Yes |
| Private sector | No | Yes | Yes | Yes |
| Non-governmental organizations | No | Yes | Yes | No |
| International organizations | No | Yes | Yes | Yes |
| Individuals (e.g., farmers, households, residents) | Yes | Yes | Yes | Yes |
| Academia | Yes | Yes | Yes | Yes |
Transdisciplinary approaches and methods designed and selected for stakeholder involvement and knowledge production and integration in the four case studies in China, Vietnam, and the Philippines
| SuMaRiO | SURUMER | LEGATO | LUCCi | |
|---|---|---|---|---|
| Stakeholder involvement approach | Stakeholder dialogue (Interviews, workshops) | Stakeholder discourses (informal and formal interviews, workshops) | Stakeholder discourses (interviews, focus group discussion, direct or indirect participant observation) with feedback rounds, workshops, conferences, publications | Stakeholder dialogue (workshops, roundtable discussion, interviews regarding scenario development) |
| Methods of knowledge integration | Actor modelling, Bayesian network modelling, participatory scenario development, decision support system | Integrated modelling, participatory scenario development | Integrated assessment, integrative iterative discourses, scenario development, monitoring, direct collaboration in citizens science | Integrated modelling, participatory scenario and strategy development |