ECO.G.U.S. · ECOsystem services for resilient and sustainable cities: an ecohydrological approach for Green Urban Spaces
Horizon 2020 — Marie Skłodowska-Curie Actions
- Duration
- 2016-08-15 → 2018-11-14
- EU contribution
- €197,720
- Participants
- 2
- Scheme
- MSCA-IF-GF
Lines connect the coordinator with its partners.
Results in brief
ECOsystem services for resilient and sustainable cities: an ecohydrological approach for Green Urban Spaces
Cities and towns are complex social-ecological systems and their successful, and robust governance derives from deep and resilient interactions between social, economic and environmental factors. In this context the environmental infrastructures (in their broad significance, both natural and built, hard or soft) play a key role to maximize the society well-being, and their management must faced with important challenges to find a political and economic equilibrium. These challenges are generated by a world that is constantly changing both in environmental (i.e., climate local and global changes and interrelated processes), economic (i.e., market globalization, financial shocks, etc...) and social sense (i.e., urbanization, cities and mega-cities growth, country depopulation, etc...). As a consequence, the governance and the political decisions have to take into account the changing conditions: the necessity of tools able to predict (if possible) the future implication of present choices is nowadays greatly increasing. As the world’s cities are becoming increasingly overcrowded and polluted, the expansion of land covered by impervious surfaces combined with climate change lead to new challenges for the relationship between people and urban ecosystems. Among the several components of the urban ecotone, green spaces play a significant role providing different ecosystem services. The development of models that embody the impact of human actions on water, energy, carbon and nutrient cycles that characterize the city context is crucial to the determination and quantification of ecosystem services in current and future scenarios. A multidisciplinary approach is thus required to address the problem of making modern cities more livable and resilient. The work carried out during the second part of the Action, has been devoted in particular: (1) to develop and validate a mathematical model under the framework of the dynamical system theory; (2) to match the ideas and the methodologies provided by Systemic Design theory with the quantification of Ecosystem Services provided by Green Urban Spaces; (3) to the implementation of a new scoring matrix method able to perform a easy-to-use analysis of Water Ecosystem Services provided by Green Urban Spaces and based on real data. The efforts performed to include all the previous results under the framework of Benefit-relevant indicators (BRIs) analysis can be indicate as the Action conclusion. The BRI is a recently developed concept that “explicitly reflects an ecosystem’s capacity to provide benefits to society, ensuring that ecosystem services assessments measure outcomes that are demonstrably and directly relevant to human welfare” (Olander et al., 2018).
Data: CORDIS, © European Union
Project objective
For the first time in recorded history the majority of people live in cities and the increasing urbanization modifies their mass, momentum, and energy budgets: in the next decades redevelopment, densification, population increase and demographic shift, as well as climate change will potentially impact the production and consumption of urban ecosystem services. Among the various ecosystem services the ECO.G.U.S. proposal focuses on Green Urban Spaces (GUS). Under the framework of socio-ecohydrology, the ECO.G.U.S. project main goal is to develop scientific tools to quantify the GUS sustainability and their benefits as ecosystem services. The proposed scientific tools will generate guidelines and best management practices with the aim of improving the GUS quality and quantity as well as the current management practices. To address the aforementioned challenges, the objectives of the project are:• to perform a SWOT analysis of GUS typologies with respect to the urban water cycle components, including biophysical, structural and social factors;• to introduce a new dynamical ecohydrological model coupling the dynamics of water, vegetation, energy and nutrients in an urban environment with the stochastic components, thresholds and nonlinearities associated to unpredictability of the hydrological drivers and to the stronger human feedbacks on the hydrosphere and ecosystems; • to frame the problem of urban water management in GUS management using the theory of optimal stochastic control;• to define new guidelines for GUS management;• to lay the foundations of the first EU research group in urban ecohydrology.ECO.G.U.S. project represents one of the first applications of the stochastic ecohydrological approach and the optimal stochastic control to an urban context. The cooperation between high-level institutions (POLITO and DUKE) will help EU and US urban regions to better deal with the shocks and bombshells that will result from climate changes in the next futur
Original text from CORDIS.
Participants
- POLITECNICO DI TORINO · TorinoCoordinatorItaly
- DUKE UNIVERSITY · Durham NcUnited States
Links
- View on CORDIS
- DOI: 10.3030/701914
- http://web.archive.org/web/20200901172101/http://www.ecogus.polito.it/
Data: CORDIS, © European Union
