Submitted:
10 September 2025
Posted:
12 September 2025
You are already at the latest version
Abstract
Keywords:
1. Introduction
2. Seven Design Attributes for Cross-Scale Scenario-Based Regenerative Governance
2.1. Phase I. Engagement of Stakeholders Across Multiple Governance Levels
2.2. Phase II. Co-Creating Ontologically Differentiated Scenario-Narratives
2.3. Phase III. Rooting Scenarios in Places- Negotiate Possibilities and Scenario/ System Boundaries with Reference to Diverse Understandings
3. Research Approach and Methods
3.1. Phase I: Multi-Level Engagement
3.2. Phase II: Co-Creating Ontologically Differentiated Scenarios
3.3. Phase III: Situating and Bounding the Scenarios
4. Results—The NEXUS FUTURES Scenarios- an Ontologically Differentiated Scenario Set
4.1. The Ontological Differentiation
4.2. Three Different Understandings of Space and Their Consequences for Planning
4.3. Municipal Climate Adaptation Plans
4.4. The Greenbelt Luxembourg Project
4.5. Merits and Limitations of Applying the Scenarios
5. Conclusion and Outlook
Author Contributions
Funding Sources and Other Acknowledgements
Data Availability Statement
Appendix A. Summaries of the Three NEXUS FUTURES Narrative Scenarios
Smart Sustainability
Common Good and Knowledge Scenario
Web of Life
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| Phase | I. Multi-level engagement (Jan.2017-June 2018) |
II. Co-creating an ontologically differentiated scenario set (June 2018- Dec. 2018) |
III. Synthesis, testing and rooting the scenarios (Feb. 2019-Jul 2021): |
|---|---|---|---|
|
Situation: Institutional context and governance |
University- led Setting up the reference group and scientific advisory board |
University- led Reference group |
University- led Five experts Scenario author teams Reference group Scientific advisory board |
| Assumptions about the future | Exploration | Exploration of drivers of change, cross scale interactions, uncertainties | Ontological differentiation |
| Process design, participation and methods | 50+Interviews & Workshop 1. 17-18. June 2018 Mapping situations& systems, drivers of change and uncertainties |
Three workshops: Workshop 2. November 2018: Understanding assumptions, spatial scales, and micronarratives Workshop 3. January 2019: Testing and evaluating the metanarratives/story lines |
Concept proofing and detailing with five experts Three independently working scenario author teams |
| Research approach & role of researcher | Interdisciplinary | Transdisciplinary | Transformative |
| Methods & tools | Document analysis Literature review Contradiction mapping Collaborative conceptual systems Mapping (Newell and Proust 2018) Identification of drivers of change Chorus of Voices (Ramirez and Wilkinson 2016) |
World Café exploring what matters across different governance levels Eliciting uncertainties and toxic assumptions Micronarratives (as described in Van der Merwe et al. 2019) |
Workshop to challenge draft scenario scaffolds System scales exploration Time scales/Timelines (Pereira et al., 2018, 2021) Seed project identification Two quantitative modelling studies on climate and water demand and supply. Three qualitative expert contributions on spatial planning, different models of the circular economy, and different legal and regulatory contexts. |
| Smart sustainability | The common good | The web of life | |
|---|---|---|---|
| Titles of the micro-narratives from the 2nd workshop that were assigned to a group. | Growth: origins and effects Technology as a tool Flood prevention for dummies Sick of the climate Climate flight Influence of development on the water cycle |
Luxembourg’s path to the knowledge society Health committed Luxembourg is on fire! Cycle of improvement On the brink: every opinion counts |
Attitudes help animals ever more Eco services gain entry Task for generations Influence of politics on biodiversity |
|
Social goals in this world? Based on central factor maps, diagrams, and excerpts from the presentations. |
Access to resources and capital. Creating wealth through growth of a smart and regenerative circular economy. |
Common good through good relationships and community learning processes on the ground. Creating quality of life and health. |
Protect biodiversity as a foundation for resilience and honor life force in its many forms. Create environmental quality to regenerate the biosphere and reverse destruction of nature through industrialization. |
|
Interdependecies / feedbacks Based on the diagrams |
Growth, land, climate change, state of nature, water quality, health, innovations, laws. | Awareness, thinking and behavior, eco-services, education, health, state of the biosphere, monitoring, transparency, and trust. | Luxembourg as a nature reserve. Appreciation of nature, nature parks, biodiversity, education. State of nature, rainwater management. |
| Activities/processes that shape the use of water and soil the most. (Labeled arrows on diagrams) |
Cycles of recycling instead of waste and remediation/clean-up. | Good social integration in a community and fulfilling leisure activities with a healthy relationship to nature are recognized as the basis for well-being. Participative processes with e.g., Citizen Science offer opportunities for social learning, with joint creation of goals and indicators at the local level. | The state buys land that is leased with nature conservation requirements to protect the existential regeneration potential of nature and biodiversity. Citizens feel more connected to nature and support the state. |
| Changes in economy and society compared to today. (Excerpt from the transcripts presentations diagrams) |
Investment in circular economy and regeneration of nature increases efficiency of water and soil use and slows biodiversity loss. However, due to rebound effects, degradation continues and becomes precarious in 2045. Water pollution also affects human health (pesticides, antibiotics). However, uneven wealth creation enhanced disparities. Climate refugees can hardly be kept out of the country. Knowledge even more split between experts and non-experts and in consequence citizens feel disenfranchised and skeptical of the idea of the common good. Disparities make everyone jaded and result in withdrawal from society across all income groups. Democracy is endangered. |
The economy depends above all on local initiatives, markets, and production cooperatives. Many communities have joined together to create local currencies. Regional and local energy, water and food supply is common. Communities and cooperatives of local producers ensure locally equitable distribution. Massive digitalisation with weakened central structures and youth brought up on the idea that ‘hacking the system’ is cool’ has as a consequence rampant cybercrime. |
Luxembourg is for the most part a nature reserve and tourist destination. Biodiversity and natural resources have increased. There are no longer as many commuters (down to 80k). Luxembourg no longer attracts banks and bankers, but researchers. In the Eiffel and Ardennes, Germans and Belgians have taken an example from Luxembourg in cross-border cooperation and therefore the area is of a size to be considered as an exemplary project in the rest of Europe. Net positive - the only area in Central Europe that is both carbon balance and water balance positive and does not contribute negatively to the nitrogen or phosphorus cycle. |
| Possible crises | Black-out Little resilience in interconnected smart energy, water and land use systems. land use systems Cybercrime |
Local unrest due to inadequate resource distribution mechanisms, causing instability and inadequate support from national and EU networks for electricity, water, and information. | Food supply Luxembourg relies on trade. Mass tourism even if designed for nature experiences can contribute to a deteriorated state of nature reserves. |
| Water and Soil quality | --- | ++ | +++ |
| Smart Sustainability | Common Good | Web of Life | |
|---|---|---|---|
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| Story line | Technological progress driven by competition marches forth, many people and nature fall behind. | Regional resources are valued, local cohesion grows. Rivalries between regions are on the rise. National public infrastructures are neglected and increasingly fail. | Active personal engagement in the regeneration of a diverse web of life facilitates to forego formerly cherished freedoms and a high level of individuality. |
| Goals | Growth and individual (inequitable) wealth from efficient use of natural resources | Common good, human dignity and political participation |
Regeneration of ecosystems to foster their resilience |
| Metaphors | Symbols for predictability, command and control such as references to machines and the military. | Symbols for ideals, the mind, and human health. | Symbols relating to emergence, natural processes and human environment interactions, such as burrowing, navigating, budding, and rooting. |
| Ontology | Objects have properties independent from people or other sentient beings who experience them. | Subjectivism assumes that meaning is always to a person and depends on rational knowledges as well as experiences, feelings, values and intuitive insights | An experientialist understanding of the world assumes truth is relative to our conceptual system, which is grounded in and constantly tested by our experiences in our interactions with other people and our physical and cultural environment. |
| Knowledge system and educational priorities | Focus on science, technology, engineering and maths (STEM) Computer modelling Predictions and forecasts Big data Decisions in politics and every-day life are delegated to systems relying on Machine-Learning (ML) and Artificial Intelligence (AI) Education gives primacy to scientific disciplines, mathematics, ICT and programming circular economy and entrepreneurship |
Local place-based knowledge needs to be integrated it with other forms of knowledge to inform action. Awareness that human wellbeing and quality of life depend on the quality of the natural environment. Collaboration & social cohesion, important goals Local economics, wellbeing economics, economy for the common good Entrepreneurship that benefits the local region |
Awareness that humans are part of nature and part of a complex system. Our perception, judgments and actions are interdependent with nature. Local place-based knowledge and experience needs to be integrated it with other forms of knowledge to inform action. Learning by doing and observation of nature Mindfulness and care in all interactions Technology is designed to foster and scale up co-creation of empirical data on regenerative initiatives and social learning in living labs. ML and AI services are designed to inform and support but do not replace human decision-making. |
| Prevailing narrative about human-environment relations | Relatively resilient and stable- an extractive relation: The earth system and the living conditions in the biosphere are seen as able to withstand more pressure’, even if it has become warmer due to climate change. Extreme unforeseen events and potential damage and loss therefrom are not subject to explicit deliberation. | Unpredictable- a relation of careful stewardship: We do not know to what extent human activity over the past 200 years has caused biodiversity loss and pollution of the environment has accelerated to a critical situation. The pre-cautionary principle is used for most decision-making at regional and national level. | Vulnerable- a relation of embeddedness and recognition of need for regenerative activities:; We are embedded in a web of diverse and interdependent living organisms. Our role as humans is to serve as caretakers that other species can thrive again wherever we settle and work. We can not survive without other species on land and in the water, including microbes, insects, birds, fish and mammals. |
| Understanding of planetary boundaries |
![]() Earth system tipping points. Richardson et al., 2023. |
![]() Ecological ceilings and social foundations. Raworth et al., 2016. |
![]() Social-ecological ceiling and foundation for a human-wildlife co-existence space. Rupprecht et al., 2020 |
| Smart Sustainability | Common Good | Web of Life | |
|---|---|---|---|
| Territorial development master plan | ![]() |
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| Resident population | Total: 1.2 million
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Total: 930.000
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Total: 850.000
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