Search Results (37)

The aim of this article is to present the social–ecological system (SES) as a unit of analysis for sustainable water management under conditions of anthropogenic pressure in Poland. In the face of accelerating climate change and growing human impacts, Polish water systems are exposed to increasing ecological stress and to material and immaterial losses affecting local communities. The SES approach provides an integrative analytical framework that links ecological and social components, enabling a holistic view of adaptive and governance processes at multiple spatial scales, from municipalities to areas that transcend administrative boundaries. Methodologically, this study triangulates three complementary approaches to strengthen explanatory inference. This conceptual SES review defines the analytical categories used in the paper, the bibliometric mapping (Scopus database with VOSviewer) identifies dominant research streams and underexplored themes, and the qualitative Polish case studies operationalize these categories to diagnose mechanisms, feedbacks, and governance vulnerabilities under anthropogenic pressure. The bibliometric analysis identifies the main research streams at the intersection of SES, water management and sustainable development, revealing thematic clusters related to climate change adaptation, environmental governance, ecosystem services and hydrological extremes. The case studies - the 2024 flood, the 2022 ecological disaster in the Odra River, and water deficits associated with lignite opencast mining in Eastern Wielkopolska - illustrate how anthropogenic pressure and climate-related hazards interact within local SES and expose governance gaps. Particular attention is paid to attitudes and social participation, understood as configurations of behaviors, knowledge and emotions that shape decision-making in local self-government, especially at the municipal level. This study argues that an SES-based perspective can contribute to building the resilience of water systems, improving the integration of ecological and social dimensions and supporting more sustainable water management in Poland. Full article

Urban rivers are critical ecological and cultural assets facing accelerating biodiversity loss. This study examines the integrated redevelopment of the Jadro River spring in Solin, Croatia, where a protected ichthyological reserve intersects layered heritage and urban edges to enhance conservation and public value. Using a single-case study design that combines archival project documentation, participant observation by the architect–authors, and a post-occupancy review three years after completion, the analysis synthesizes ecological, social, and design evidence across planning, delivery, and operation phases. The project delivered phased visitor and interpretation centers, accessible paths and bridges, habitat-compatible materials, and formalized access management that relocated parking from riverbanks, reduced episodic pollution sources, and prioritized inclusive, low-impact use. Governance and programming established a municipal management plan, curriculum-ready interpretation, and carrying capacity monitoring, transforming an underused picnic area into an educational, recreational, and conservation-oriented public landscape while safeguarding sensitive habitats. A transferable design protocol emerged, aligning blue green infrastructure, heritage conservation, adaptive reuse, and social–ecological system (SES)-informed placemaking to protect the endemic soft-mouth trout and strengthen a sense of place and community stewardship. The case supports SES-based riverpark renewal in which conservative interventions within protected cores are coupled with consolidated services on resilient ground, offering a replicable framework for ecologically constrained urban headwaters. Full article

Socio-ecological systems (SESs) exhibit nonlinear feedback across environmental, social, and economic processes, requiring integrative analytical tools capable of representing such coupled dynamics. This study presents a quantitative framework that integrates a compartmental model of a global human–ecosystem with two complementary optimization approaches (Fisher Information (FI) and Multi-Objective Optimization (MOO)) to evaluate policy strategies for sustainability. The model represents biophysical and socio-economic interactions across 15 compartments, incorporating feedback loops between greenhouse gas (GHG) accumulation, temperature anomalies, and trophic–economic dynamics. Six policy-relevant decision variables were selected (wild plant mortality, sectoral prices (agriculture, livestock, and industry), base wages, and resource productivity) and optimized under temporal (25-year) and magnitude (±10%) constraints to ensure policy realism. FI-based optimization enhances system stability, whereas the MOO framework balances environmental, social, and economic objectives using the Ideal Point Method. Both approaches prevent the systemic collapse observed in the baseline scenario. The FI and MOO strategies reduce terminal global temperature by 11.4% and 15.0%, respectively, relative to the baseline (35 °C → 31.0 °C under FI; 35 °C → 29.7 °C under MOO). Resource-use efficiency, measured through the resource requirement coefficient (λ), improves by 8–10% under MOO (0.6767 → 0.6090) and by 6–7% under FI (0.6668 → 0.6262). These outcomes offer actionable guidance for long-term climate policy at national and international scales. The MOO framework provided the most balanced outcomes, enhancing environmental and social performance while maintaining economic viability. Overall, the integration of optimization and information-theoretic approaches within SES models can support evidence-based public policy design, offering actionable pathways toward resilient, efficient, and equitable sustainability transitions. Full article

University students face rising mental health pressures, making restorative environmental perception (REP) in campus forests critical for psychological recovery. While environmental factors are recognized contributors, Socio-Ecological Systems (SES) theory emphasizes that environmental and social processes are interdependent. Within this context, informal social interaction (ISI)—low-effort encounters such as greetings or small talk—represent a key social dimension that may complement environmental restoration by fostering comfort and embedded affordances. However, most studies examine these factors separately, often using coarse measures that overlook heterogeneity in restorative mechanisms. This study investigates how environmental-exposure and social–environmental context dimensions jointly shape REP in campus forests, focusing on distributional patterns beyond average effects. Using a Public Participation Geographic Information Systems (PPGIS) approach, 30 students photographed 1294 tree-dominant scenes on a forest-rich campus. Environmental features were quantified via semantic segmentation, and ISI was rated alongside REP. Quantile regression estimated effects across the REP distribution. Three distributional patterns emerged. First, blue exposure and ISI acted as reliable resources, consistently enhancing REP with distinct profiles. Second, green exposure functioned as a threshold-dependent resource, with mid-quantile attenuation but amplified contributions in highly restorative scenes. Third, anthropogenic and demographic factors created conditional barriers with distribution-specific effects. Findings demonstrate that campus forest restoration operates through differentiated socio-ecological mechanisms rather than uniform pathways, informing strategies for equitable, restoration-optimized management. More broadly, the distributional framework offers transferable insights for urban forests as socio-ecological infrastructures supporting both human well-being and ecological resilience. Full article

The increasing frequency and intensity of urban floods due to the climate crisis necessitate effective adaptation. In South Korea, flood vulnerability assessments have focused on preparedness, underscoring the need for adaptive capacity research. This study proposes the Urban Flood Adaptive Capacity Index (UFACI), a Fuzzy Logic-based framework that quantifies urban resilience. Developed from a socio-ecological systems (SES) perspective, the UFACI integrates economic resources, social capital, risk perception, and infrastructure. Fourteen indicators are applied using Fuzzy Logic to address uncertainties and enhance decision-making. The methodology is tested in 12 rainwater pumping station drainage areas in Seoul, providing actionable insights for flood management. This study contributes by shifting the focus from vulnerability to adaptive capacity, offering a systematic, data-driven approach to flood resilience assessment. Unlike conventional methods, the UFACI integrates socio-economic and physical factors, enabling targeted policy interventions and resource allocation. Its application in Seoul demonstrates its practical value, with potential adaptability for broader urban flood risk management. Full article

Rapid urbanisation in Sub-Saharan Africa demands innovative land management strategies that promote sustainable, inclusive, and resilient urban development. This study investigates the potential of land readjustment (LR) to foster neighbourhood-scale social–ecological urban resilience (SEUR) through a case study of the Nunga LR project in Kigali, Rwanda. Grounded in the social–ecological system (SES) theory and operationalised through the social–ecological land readjustment model for resilient neighbourhoods, the research evaluates LR practices against an integrated benchmark framework combining LR aspects, neighbourhood design standards, and resilience attributes. The study uses secondary data, project shapefiles, and key informant interviews to assess how Rwanda’s emerging LR model contributes to resilient neighbourhood development. Findings demonstrate strong community mobilisation and adaptive governance capacity. However, critical resilience dimensions—including modularity, green infrastructure integration, land-use diversity, and adaptive feedback mechanisms—were only partially operationalised. Consequently, while LR improved spatial formalisation and basic infrastructure provision, it fell short of creating a truly resilient, multifunctional neighbourhood ecosystem. These findings highlight the need to reframe LR from a purely technical land management tool into a systemic resilience-building mechanism. Policy recommendations include mandating green/blue infrastructure in LR plans, establishing innovative financing mechanisms, institutionalising adaptive monitoring, strengthening affordability safeguards, and promoting multifunctional spatial layouts. The study contributes to urban resilience and land governance scholarship by offering a context-sensitive, empirically tested model for integrating SEUR principles into LR practice in rapidly urbanising African cities. Future research should pursue longitudinal analyses and dynamics modelling of land readjustment impacts to deepen understanding of urban resilience pathways in the Global South. Full article

In the context of global climate change and intensified anthropogenic pressures, the coordinated development of a social-ecological system (SES) faces unprecedented challenges, necessitating an enhanced understanding of complex system interactions to achieve SES sustainability. This study quantified water resource–water environment–social economy resilience (WR-WE-SEr) and four ecosystem services (ESs)—water yield (WY), habitat quality (HQ), soil retention (SR), and carbon storage (CS)—in Northwest China from 2010 to 2020. Intersystem interactions were analyzed using resilience theory, the InVEST model, and the coupling coordination degree (CCD) model. The key findings include the following: (1) Spatiotemporal evolution patterns (RQ1): WR-WE-SEr exhibited sustained growth with significant regional disparities (Qinghai > Xinjiang > Gansu > Shaanxi > Ningxia), predominantly driven by resistance-dominated dynamics. ESs showed spatial heterogeneity: WY was concentrated in humid areas but declined temporally, while HQ and CS aligned with vegetation/land cover. All ESs followed a “V”-shaped trajectory of initial decline and recovery, with localized fluctuations but regional stability. (2) Coordinated coupling relationships (RQ2): The CCD between WR-WE-SEr and ESs maintained temporal stability but mirrored ESs’ spatial patterns, characterized by a southeast–northwest diminishing gradient. Coordination hierarchy (CS > HQ > WY > SR) and regional performance (Shaanxi > Ningxia > Qinghai > Gansu > Xinjiang) revealed synergies between system resilience and ES provisioning capacity. Transitional coordination (dissonance to coordination) at the integrated ES level highlighted gradual optimization of human–nature interactions. These findings underscore the need for multidimensional strategies to enhance WR-WE-SE-ES synergies in Northwest China. Full article

Flat terrain and economically prosperous downstream regions face significant challenges in achieving a balance between socio-economic development and ecological preservation. The Social–Ecological System (S-ES) serves as a vital framework for quantifying the interactions between human activities and the natural environment, providing insights into the development status of regional social and ecological systems. This study utilizes the Coupling Coordination Degree (CCD) method to construct an S-ES coupling model, integrating correlation analysis, geographic detectors, and grey relational analysis to explore the driving factors influencing Social–Ecological Resilience (S-ER) coordination. The research focuses on 25 counties in Shandong Province, situated in the lower Yellow River Basin, over the period from 2000 to 2022. Key findings include (1) significant spatial clustering, with identifiable hotspots and cold spots in S-ER distribution; (2) substantial changes in S-ER CCD around 2010 and 2020; and (3) persistent mismatches between socio-economic development and ecological improvement, presenting a major challenge for enhancing coordination. These insights provide valuable guidance for sustainable development strategies in the lower Yellow River Basin. Full article

Effective and sustainable water resource management requires flexibility and adaptation to local contexts. Our study analyzes the emergence and evolution of local water self-governing associations, reviewing how their struggles and conflicts, both with the public sector and among locals themselves, have been pivotal to achieving agreements and actions towards sustainable water management. Using an adapted version of the Combined Institutional Analysis and Development (IAD) and social–ecological system (SES) framework, also known as CIS, we conducted a comparative analysis of two distinct Chilean cases. This research highlights the critical role of historical factors alongside institutional support, political landscapes, and financial realities in shaping current water management practices. The findings suggest that when the actors are aligned and actions are taken to support local water user management, more efficient, sustainable, and less conflict-ridden water resource management occurs. Furthermore, this study reveals how the experiences, struggles, and successes of these local user associations have shaped national policies, particularly regarding the development of monitoring mechanisms and the promotion of public–private cooperation in water governance. These efforts have not only fostered more resilient water management systems but have also demonstrated the power of grassroots organizations in shaping broader sustainable policies. Full article

The water–energy–food (WEF) nexus is recognised globally as a framework for sustainable resource management and a potential tool for building resilient social-ecological systems (SES). To verify this, we used a transdisciplinary approach to explore how the WEF nexus approach is understood theoretically and practically. The analysis indicated a disparity in how the WEF nexus framework is understood and conceptualised in theory, and the practical implementation of the framework. Given this, the study found it challenging to validate the WEF nexus as a supporting tool for building SES resilience. In line with this, this study argues for a deeper exploration of the practical implementation of the WEF nexus framework in planning, governance and social processes. As such, the study analysed the governance and management systems of the Victoria and Alfred Waterfront (V&A), a precinct in Cape Town that adopted the WEF nexus approach for sustainable management of water, energy, food and waste resources. Using the analysis of V&A Waterfront’s management practices—including the use of the Global Carbon Exchange (GCX) system—from a practical, social and governance perspective, the aim was to understand whether a bridge between WEF nexus theory and governance practice impacts the practical ability to govern for SES resilience. Findings suggest that the nexus governance approach at the V&A Waterfront has implications that strengthen the capacity to govern for SES resilience in the V&A Waterfront context. The conclusion is then made that the nexus governance approach also strengthens the capacity to govern for SES resilience in the Cape Town context. Results also suggest the most crucial element for the success of the nexus governance approach is a material flow analysis (MFA)-based decision support system (DSS) exemplified by GCX Data Analytics Sustainability Hub (DASH-). Full article

This article delves into the enduring self-governing nature of a traditional irrigation system in a rural community in Greece through the lens of the social–ecological system (SES) framework. The aim is to analyze the variables and interactions that have sustained this community-based governance structure over a century. This study underscores the critical role of social capital, where social networks and effective communication facilitate self-governance in the management of this common pool resource. The findings reveal how actors coordinate social and physical capital when performing daily activities, enabling them to collectively solve common dilemmas. By examining the institutional arrangements and operational dynamics of the irrigation system, the study illuminates the community-led social processes that drive its sustainability. This analysis enhances the understanding of the importance of integrating social and physical capital in governance through collective action to achieve resilience. This study provides insights into alternative pathways for building resilience and discusses an irrigation system as a communal autonomous space that prioritizes social equity, democratic decision-making, and social–ecological contacts. Full article

An innovative and integrative modeling strategy for assessing the sustainability and resilience of social-ecological systems (SES) is presented by introducing a social-ecological entropy production (SEEP) method. In analogy to the thermodynamic entropy production of irreversible processes, we discuss a theoretical model that relates energy and information flow with the cultural and epistemological peculiarities of different communities that exploit the same natural resource. One of the innovative aspects of our approach comes from the fact that sustainability is assessed by a single parameter (SEEP) incorporating the simulation outcomes of all the populations participating in the dynamics, and not only on the fate of the resource. This is significant as far as the non-linearities introduced by the coupling of the different dynamics considered may lead to high sensitivity to small perturbations. Specifically, by assuming two possible types of technical and environmental knowledge-transfer methods [direct (D) and phase-in (P)] within each one of the two communities that exploit and restore a resource, we generate four mathematical models to explore the long-term sustainability scenario due to the intervention, by a new epistemological community, of an initially sustainable resource-community SES. By exploring the space of four key parameters characterizing the degree of technical and environmental knowledge, as well as the rates of social inclusion and knowledge transfer, our simulations show that, from 400 scenarios studied in each case, the P-P model predicts 100% sustainable cases in the use of the resource after the intervention by the second community. The mixed scenarios P-D and D-P predict about 29%, and the D-D scenario only predicts 23% of sustainable cases. Catastrophic outcomes are predicted at about 71% in P-D and D-P scenarios, and about 77% of extinction of the system by exhaustion of the resource and community populations in the D-D scenario. In this form, our theoretical strategy and the knowledge-transfer scenarios studied may help policymakers to find a priori science-based criteria to solve possible controversies arising from social-ecological interventions. Full article

Mine water drainage interferes with ecosystems of the discharging river, whilst river ecosystem services in return affect the livelihoods and well-being of adjacent communities. In Ha Long, Vietnam, surface coal mining will be closed after 2025 following the national and provincial strategy toward sustainable development. This opens up an opportunity to rehabilitate the associated rivers to increase resilience in the surrounding social-ecological system (SES) heavily affected by water pollution from coal mines. Increasing resilience through rehabilitation is costly and policy makers often lack precise enough information on public benefits to make good decisions. In this study, we apply the concept of SESs to analyze the interrelationship between river ecosystems and human society with its institutions and local governance surrounding the Ha Long coal mining area. Applying a contingent valuation survey with 410 households living near to the mining operations, we assess the public benefits resulting from three different but partly combined projects to increase resilience. Results show that households are significantly willing to contribute to all proposed resilience increasing projects. Factors explaining willingness to pay (WTP) are diverse and are found to be related to common institutions and local governance. Through a comparison of the results for the three projects, we find the presence of embedding effects and identify factors leading to upward biased estimates of WTP. Our study contributes to a better understanding and valuation of public benefits in SES necessary for public policy towards increasing resilience in developing countries. Full article

Sustainable tourism has grown rapidly in the last 35 years, both on the ground and as an area of academic study. However, the results of sustainable tourism development have proven to be mixed, with many unwanted outcomes stemming from its development in destinations around the world. Recent academic approaches to studying sustainable tourism development are increasingly turning towards social–ecological systems (SESs) thinking in order to embrace the inherent complexity and rapid change found in today’s world. This stems partly from an understanding that tourism is a complex social–ecological phenomenon, and that its success relies on understanding its dynamics in a given location. While SES approaches to understanding complex phenomena such as tourism are well-developed, they tend to be resource-intensive and unwieldy in rapidly changing environments, such as those found in sustainable tourism destinations. Therefore, we hypothesized that a novel form of concept mapping based on an SES perspective and the paradigm of resilience thinking could address limitations in conceptualizing and understanding sustainable tourism as part of a larger SES. In this paper, we outline our method thoroughly, then evaluate concept mapping by assessing its effectiveness as a rapid assessment tool that enhances systems understanding while being easy to use in the field, privileging local knowledge, and emphasizing relationships within the SES. We focus on the method and its applicability rather than the results of the maps themselves. Through a case study in Ometepe, Nicaragua, our results showed that concept mapping revealed key drivers and values within the SES and emphasized the value of participatory and transdisciplinary tourism research. Our study demonstrates that concept mapping is an effective method for rapidly assessing the complexity of a tourism destination in a manner that is accessible, adaptable, and achievable. Full article

Windstorms are considered among the most impacting natural events for European forests and related Socio-Ecological Systems (SES). Given that their intensity and frequency are increasing, an in-depth understanding of their impacts is crucial to mitigate risks and potential negative effects. However, so far, scientific research on windstorm impacts has mainly focused on environmental dimensions, while socio-economic and institutional ones are rarely taken into consideration. Our analysis aims at enriching the current scientific knowledge on windstorm impacts on forest SES by providing an overview of the state-of-the-art academic investigations on windstorm impacts on socio-economic and institutional dimensions. Overall, 46 papers were reviewed to identify the most recurrent post-windstorm dynamics and drivers that influence resilience and adaptation of socio-economic, institutional and related governance dimensions of European forest SES. Results show that the current scientific knowledge on socio-economic impacts of windstorms mainly concentrates on forest-related stakeholders and sectors, paying little attention to the broader social, cultural and institutional drivers that contribute to forest SES resilience. Further, cascade effects linking environmental, social and institutional dimensions are poorly analyzed. This restricted focus could lead to an incomplete understanding of the dynamics shaping socio-economic adaptability to windstorms, affecting long-term and sustainable recovery from extreme natural events. To correctly frame effective, intersectoral and coordinated recovery strategies gaining a deeper understanding of human–environment interactions is needed, as well as acknowledging the positive influence of causal relationships in improving forest-related SES resilience. Full article