Forecast adaptation surprises in human-water systems understand and tackle water theft Transform human-water systems' research

Human behaviour
& interactions

Human behaviour & interactions

We will understand and model the behavior of individual agents and their interactions at the local to global level, to be able to consistently and repeatedly forecast the nonlinear adaptive responses of agents over time.

Human-water systems
& surprises

Human-water systems & surprises

We will endogenize the nonlinear socioeconomic processes of agents into human-water systems models to be able to consistently and repeatably forecast nonlinear socio-hydrological phenomena.

Uncertainty
& scenarios

Uncertainty & scenarios

We will quantify scenario and modeling uncertainties, and their cascading effects across coupled human- water systems, to be able to consistently and repeatedly forecast nonlinearities that may emerge or be amplified due to issues of model parameterization/structure or scenario design.

Water theft claims 30%-50% of the global water supply and is on the rise

The policy failure to tackle water theft has been attributed to the nonlinear adaptive responses by economic agents such as irrigators, which can affect and be affected by other socioeconomic and ecological processes via feedback loops with cascading impacts that are difficult to foresee. This has led to adaptation surprises with unexpected policy consequences, which have increased rather than reduced water theft, thus depleting water bodies and hampering sustainable development.

News

Welcome to our WaterTheft website, which will report the progress we make in our project towards forecasting adaptation surprises in human–water systems....

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LIVING LABS

The methods developed within WaterTheft will be empirically applied and tested in 3 living laboratories experiencing significant water theft in widely different contexts.

The testing of the methods in different living labs will ensure the robustness and the adaptability of the WaterTheft approach.

We will gather, process and harmonize data on land use and yields, market prices, family and hired labor, other production costs, subsidies and other revenues, and market prices for every single relevant crop and across the three labs, for the Arenales Aquifer, Spain, The Salton Sea in California, USA, and The Namoi Catchment in New South Wales, Australia. This data will allow us to setup the mathematical programming models, and will be complemented with data from behavioral economics experiments gathered in WP1.

Case Studies

The Arenales Aquifer

Duero River Basin - Spain

Where the transition from rainfed cereals and vines to water intensive maize and horticulture crops has been partly supplied with illegal water resources that are causing aquifer depletion and nitrate pollution.

Northern California

The Salton Sea - United States of America

Where the terminal lake with no natural outlet has been historically sustained entirely by agricultural runoff, and where irrigation modernization deployed to “save” water is actually increasing water depletion at the expense of environmental return flows.

The Namoi Catchment

New South Wales - Australia

Where the water bought by public institutions to restore environmental flows is being pumped out for cotton growing.