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SylvCiT - An AI-based support to urban forest resilience
Maxime Nicol1, Annick St-Denis2,3, Raouf Moncef Belbahar1
1Centre interuniversitaire de recherche sur la science et la technologie (CIRST), Université du Québec à Montréal, Montréal, Québec, Canada.
Urban trees offer vital ecosystem services but lack diversity. A new system, SylvCiT, uses machine learning to recommend diverse, suitable tree species, enhancing urban forest resilience and function.
Area of Science:
- Urban Ecology
- Computational Ecology
- Forestry
Background:
- Urban trees provide essential ecosystem services, including carbon sequestration and heat island mitigation.
- A lack of tree diversity in urban environments compromises their resilience and ability to deliver services.
- Current urban forestry practices often overlook species functional traits and spatial relationships.
Purpose of the Study:
- To introduce SylvCiT, a novel system for recommending diverse and suitable urban tree species.
- To maximize functional diversity in urban forests at various spatial scales.
- To enhance the user experience and transparency of tree recommendation systems.
Main Methods:
- Development of a machine learning and optimization-based system (SylvCiT) integrating functional traits, planting location, and neighboring tree data.
- Analysis of urban forest structure, diversity, and carbon storage in a Montreal neighborhood.
- Assessment of species and functional group diversity in Montreal parks, simulating the impact of recommended species.
Main Results:
- SylvCiT effectively recommends tree species to increase functional diversity.
- Analysis of Montreal's urban forest revealed specific diversity and structure characteristics.
- Simulations demonstrated that planting recommended species significantly enhanced species and functional group richness in parks.
Conclusions:
- SylvCiT offers a powerful tool for improving urban forest diversity and resilience.
- Integrating functional traits and spatial context is crucial for effective urban tree selection.
- The system's focus on human-machine interfaces promotes user acceptance and transparency in urban forestry decisions.
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