WaterSmartLand

01/01/2024 -

31/12/2029

2024 – 2025 BiodivTransform

WaterSmartLand tackles the significant threat posed to water bodies, as nutrient run-off from intensive farming practices and increased fertiliser use degrades water quality, by pinpointing high-risk areas and proposing targeted solutions.

Context

As the global population grows, agricultural activities intensify, leading to increased fertiliser use and diffuse nutrient emissions. This escalating trend poses a significant threat to water bodies, as nutrient run-off from intensive farming practices degrades water quality. Traditional land and water management approaches often lack the precision needed to identify high-priority areas or offer spatially explicit solutions. In this context, the ERC-funded WaterSmartLand project will pinpoint high-risk areas and propose targeted solutions. Using advanced analysis, modelling and machine learning, the project identifies optimal land management strategies, such as using wetlands and riparian buffer strips, to mitigate nutrient run-off. By harnessing a discrete global grid system data cube and cutting-edge machine learning techniques, the project offers spatially explicit solutions.

"We will implement a novel Discrete Global Grid System data cube to manage all environmental data needed for modelling. "

Main objectives

WaterSmartLand aims to develop an integrated analysis, modelling, and machine learning (ML) framework to identify spatially optimal land management scenarios for implementing nature-based solutions (NbS) — such as wetlands and riparian buffer strips — in order to reduce agricultural nutrient runoff from catchments at different scales. A further key objective is to identify landscape predictor variables at different spatial scales for nutrient concentrations and their cross-scale interactions using ML, supported by a novel Discrete Global Grid System (DGGS) data cube to manage all environmental data needed for modelling.

Main results

Since the project runs from 2024 to 2029, final results are not yet available. However, several concrete outputs have already been delivered: the project contributed to the development and publication of the OGC API – DGGS as an official Open Geospatial Consortium standard, enabling effective communication and functionality across different software systems in large-scale hydrological modelling. The team has also presented a user-oriented data cube concept for biodiversity and carbon dynamics assessment using remote sensing data, and hosted international workshops on spatial machine learning methods, including topics such as model validation, explainable AI, and discrete global grid systems.

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