This project aims to strengthen the scientific robustness of groundwater recharge simulation tools in the context of climate change. This will support their use in the Hydroclimatic Atlas of Southern Québec.
This project aims to develop existing modelling tools to better represent the spatio-temporal variability of recharge in wet, cold climates like that of southern Quebec.
The goal of this project is to document and analyze the state of knowledge on the current and future water needs of four major water-consuming industrial sectors in Quebec and to assess how the effect of climate change can be taken into account in planning for the water needs of these sectors.
The project aims to answer the following question: What effects will climate change have on future residential potable water consumption in southern Quebec?
This project aims to implement a new thermal simulation module in the PHYSITEL-HYDROTEL hydrological platform, as well as an LSTM deep learning model, to simulate the temperature of rivers in southern Quebec for a future edition of the Hydroclimatic Atlas of Southern Québec.
This project aims to implement and evaluate the thermal simulation module of the Raven hydrological modelling framework to simulate water temperature in the Ouelle River watershed. The feasibility of applying this model to future climates throughout southern Quebec can then be evaluated.
The second phase of this project will begin to document the chain of consequences of water scarcity on a provincial scale, in terms of the cascading effects on the well-being of human populations and ecosystems.
The QClim’Eau initiative is the fruit of a long-standing collaboration between the ministère de l’Environnement, de la Lutte contre les changements climatiques, de la Faune et des Parcs (MELCCFP) and the Ouranos Consortium to leverage cutting-edge scientific expertise on hydroclimatology issues and to coordinate advances in the field.
This project aims to answer the following question : Does the improved simulation of precipitation extremes with the new generation of regional climate models with 2.5 km resolution lead to an improvement in flooding simulations by a hydrological model in southern Quebec?
The amplification of precipitation and flow extremes in a warmer climate is greater for small watersheds, for shorter durations, and for frequent recurrences. The results show the importance of considering the size of watersheds in assessing vulnerability to increased extreme summer and fall precipitation.
