Beyond Calendars and Maps: Rethinking Time and Space for Effective Knowledge Governance in Protected Areas
Abstract
:1. Introduction
2. Timescapes and Time Perspective
2.1. Understanding Time: Connecting Past, Present, and Future
2.2. Temporal Dynamics and Conservation Goals
3. Knowledge Governance: Accessing, Using, and Sharing Information
3.1. Creating Meaning, Crafting Knowledge
3.2. Producing, Co-producing and Governing Knowledge
4. Framework for Multidimensional Knowledge-based Processes
“Some years ago, we started reflecting on fragile ecosystems and climate change, and we realized, what are we going to do with the glaciers? Who is working on that? What management actions are needed?”Manager, Colombian National Parks, 2016
5. Reconciling Calendar Time with Reflexive Practice
5.1. South African Approach: Strategic Adaptive Management and Reflexivity
5.2. Colombian Protected Areas: Linking Knowledge and Management Beyond the Calendar
5.3. Implications for Future Management
6. Conclusions
Author Contributions
Funding
Acknowledgments
Conflicts of Interest
Appendix A
Guiding Questions | Options | References |
---|---|---|
What is the current model of knowledge governance in use? | Constant dialogue between managers, practitioners and scientists to follow up system responses and ‘novelties. Even under a loading dock knowledge transfer model, managers can have a dialogue with scientists to refine information needs. Co-production, interdisciplinarity and socio-cultural diversity to integrate local knowledge can facilitate understanding of different needs, expectations, and social-ecological responses. Evaluate costs and needs for data collection, including where to host the data, funding, and capacity to analyse and interpret it in the long term | [12,13,50,52,53] |
What is the main conservation goal (e.g., biophysical attributes, ecosystems services, ecological processes) and what information better capture conservation goals responses to drivers of change? | Inventories and surveys provide a first glimpse of conservation goals status but are limited to narrow spatio-temporal scales. Evaluate survey characteristics, frequency of data collected, and applicability of results. Historical data can be useful to understand the system and anticipate responses, important to evaluate availability and quality (e.g., gaps in time or space) of datasets. Identify indicators that can help understand climate change as a factor influencing ecological integrity (e.g., early warnings systems-floods and droughts) | [5,31,76,77] |
Where are the ecological processes and drivers of change located? | Conservation objectives can have a narrow or broad spatio-temporal scale; drivers of change can be inside, or outside the protected area. Evaluate which methods for data collection best captures processes and drivers of change at different scales. Identify the quality and origin of the drivers of change (e.g., endogenous change, exogenous-agriculture, anthropogenic climate change-related) | [5,31,78,79] |
What temporal and spatial scales are more relevant to monitor conservation goals and social-ecological processes? | Information about social-ecological responses at smaller spatial scales (and over short periods) can help, over time, to connect to broader scales (even if this is not the original objective) but requires consistency to avoid information gaps. Consider establishing long-term monitoring systems of ecological processes and monitoring impacts of external drivers of change. Understand persistence time of conservation goals to improve design of monitoring systems and observe responses and trends to anticipate future changes | [5,78] |
How much change are managers and stakeholders willing to accept in relation of social-ecological systems? | Define indicators and thresholds of potential concern of these indicators, co-produced with managers, scientists, and communities to track social-ecological responses, define future expectations, limits of acceptable change and decide when to intervene. Complementary to quantitative tools, qualitative tools can help predict system responses and cascade effects of disturbances | [32,57,59,80,81] |
Guiding Questions | Options | References |
---|---|---|
Are managers and scientists understanding response times and social-ecological systems responses? | Evaluate if current information systems and data quality allow managers and other relevant stakeholders to understand ecological processes, functions, and responses to disturbances. Conceptual models and mental maps can help design monitoring, understand system dynamics, connect knowledge systems, and identify management options | [9,31,82,83,84] |
What was learnt from the previous practice and monitoring? | Allow time for co-learning and evaluate social-ecological responses in deciding if, and when to intervene, including understanding and learning from human responses to ecological transformation through time | [48,85] |
Are current monitoring systems and management effectiveness processes adequately capturing responses and changes of socio-ecological systems across temporal and spatial scales? | Review and update monitoring systems to capture knowledge and learning from different actors and facilitate future decisions. Evaluate if monitoring system timeframes are adequate to follow social-ecological responses, inform decision-making processes, communicate risks, and facilitate stakeholder engagement. Evaluate if management effectiveness results can help to understand changes in social-ecological systems | [78,86] |
Can observations from stakeholders outside the protected area and local knowledge, help to understand human and nature responses to drivers of change? | Evaluate and update thresholds of potential concern to ensure monitoring systems are capturing ecological responses across scales and enabling action. Identify potential collaborators for monitoring ecological processes outside the protected area | [18,59] |
Are future expectations for the conservation goals in the still valid and relevant? | Under conditions of uncertainty and complex systems, envisioning and futures thinking approaches can help visualize future scenarios and identify actions that can be done in the present | [35,36,48] |
Guiding Questions | Options | References |
---|---|---|
Under scenarios of ecological change, is the long-term vision of the protected area inclusive of the beliefs, livelihoods, and expectations of different stakeholder groups? | Identify complementary management and adaptation options (e.g., stewardship programs, corridors, community conservation). Evaluate if conservations goals are still relevant or need to be reframed to address stakeholder visions while addressing future climate change. Participatory workshops, face-to-face dialogues, or co-production to reconcile different expectations about the future. Evaluate changes in perception of values about the protected area and identify how to allow access to conservation benefits without compromising ecological integrity. | [48,78] |
How do we improve and update monitoring systems and knowledge governance models to facilitate strategic planning in a context of high uncertainty? | Update standards and rules (including funding) to improve monitoring systems and enable action; evaluate adequacy of funding. Co-design strategies for knowledge co-production can help identify options to rearticulate knowledge governance models to deal with uncertain futures. Evaluate management options, identify new alternatives and barriers that constrain adaptive management | [12,48,87] |
Are there options for cross-scale management and knowledge co-production in and outside protected area boundaries? | Consider the voices and expertise from diverse stakeholders in and outside the protected area to enable a dialogue and participatory strategic planning. This can help evaluate responses and rethink current practices while finding a balance between the requirement of protected area management and the social-ecological context. | [48] |
Are decision-making processes and knowledge systems still valid to deal with new conditions and navigate ecological change? | Evaluate strategic alliances between different groups for collecting, analysing, and sharing information (e.g., private sector, academia, local communities). Identify which rules and norms might need to change to facilitate integrating diverse knowledge systems to facilitate adaptation in the short and long-term | [46] |
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1 | Here ILK is inferred by the authors; in Cuvi (2019) Indigenous knowledge is mentioned, but does not refer explicitly to ILK. |
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Múnera-Roldán, C.; Roux, D.J.; Colloff, M.J.; van Kerkhoff, L. Beyond Calendars and Maps: Rethinking Time and Space for Effective Knowledge Governance in Protected Areas. Land 2020, 9, 293. https://doi.org/10.3390/land9090293
Múnera-Roldán C, Roux DJ, Colloff MJ, van Kerkhoff L. Beyond Calendars and Maps: Rethinking Time and Space for Effective Knowledge Governance in Protected Areas. Land. 2020; 9(9):293. https://doi.org/10.3390/land9090293
Chicago/Turabian StyleMúnera-Roldán, Claudia, Dirk J. Roux, Matthew J. Colloff, and Lorrae van Kerkhoff. 2020. "Beyond Calendars and Maps: Rethinking Time and Space for Effective Knowledge Governance in Protected Areas" Land 9, no. 9: 293. https://doi.org/10.3390/land9090293
APA StyleMúnera-Roldán, C., Roux, D. J., Colloff, M. J., & van Kerkhoff, L. (2020). Beyond Calendars and Maps: Rethinking Time and Space for Effective Knowledge Governance in Protected Areas. Land, 9(9), 293. https://doi.org/10.3390/land9090293