Research projets and publications

The exchanges and comparisons between Québec and Mexico will make it possible to conduct a comparative analysis in order to enrich the practices and tools for integrated water management adaptation available to Québec users.

Knowledge of changes in groundwater recharge will enable users to anticipate problems that could have a long-term effect on their water supply (quantity, quality, seasonal forecasts).

The project will make it possible to adapt dam management to climate change and the water needs of local communities.

This project improved adaptive capacity by developing expertise to mitigate permafrost instability under transportation infrastructure.

The availability of more reliable extreme water level statistics will enable designers and engineers to better assess the risks associated with extreme water levels for present and future infrastructure.

The project identified concrete examples of uses for the Agroclimatic Atlas, thereby introducing it to a larger number of stakeholders and promoting its use.

The knowledge resulting from this project will enable the development or revision of planning and action tools for decision makers in order to assist the crop protection sector to adapt to climate change.

A better understanding of the risks of flower frost damage and water stress in blueberry fields and the effect of climate change on these risks, as well as target profitability thresholds to be reached through yield increases to justify investing in an irrigation system

The RADEAU 1 and 2 projects exploited and structured the large quantity of existing data and developed new data in order to characterize the water balance of the regions under study in current and future climates, and thus help inform the government, regional actors and other studies on water management.

This project will inform various institutions about the contribution of UA to food security, food justice, individual and collective resilience with regard to food and adaptation to climate change in the Montréal metropolitan area.

A better understanding of the contribution of AEPs and agroforestry systems to wildlife movement in agricultural environments allows for the prioritization of land-use planning actions to promote their sustainability and effectiveness. In a changing context, the use of both natural and social science approaches is recommended to promote the adoption and sustainability of AEPs and agroforestry systems in agricultural areas.

Raising awareness among key fisheries stakeholders of the expected effects of global ocean changes on northern shrimp populations and fisheries based on new, robust findings.

Identification of key factors and elements favouring the restoration of riparian wetlands and their services in agricultural environments.

Producers and agricultural stakeholders will be better equipped to understand the impacts of climate change on land use and its effects on soil health and vulnerability to degradation.

This project will provide knowledge to better adaptation strategies for production and management to ensure the sustainability of the important aquaculture industry and recreational tourism activities that depend on brook trout.

The summary issued for this topic under study reviews the various climatic phenomena affecting Quebec, recalls some precedents where heritage buildings have been damaged or destroyed by a hazard, and makes a (non-exhaustive) inventory of adaptation measures implemented in Quebec or elsewhere.

This project will provide the project's partners, responsible for managing and conserving the Lake Papineau area and its ecosystems, with recommendations to implement long-term management plans by taking into consideration climate change and cumulative impacts on lakes and wetlands.

This project helped maintain and increase the connectivity of natural infrastructures in the greater Montreal area is an important adaptation strategy to facilitate species movement over the next 100 years.

The results of this project will enable decision-makers, ecological planners and mining companies to develop adaptation strategies and industrial development and biodiversity conservation measures based on robust scientific data that takes into account the effects of climate change on the wetlands of Eeyou Istchee James Bay.

The adaptation strategies proposed upon completion of the project will allow governments and the various organizations concerned to better determine habitats of interest to waterfowl, with regard to land use planning, networks of conservation areas and forestry and agricultural practices.

The project will enable Québec City to plan a long-term conservation network that takes climate change into account, and to integrate this network into its planning management while contributing to the Ministère des Affaires Municipales et de l’Habitation’s Strategy to ensure the occupation and vitality of the territories.

This research project is designed to better understand the dynamics of cyanobacterial blooms and cyanotoxins under climate change. The results will provide a solid foundation for biodiversity conservation through adaptation measures.

The economic quantification of ES generated by natural capital can be used to develop new indicators for land-use planning. It can also serve to inform decision making and can be integrated with other decision support tools such as cost-benefit and multi-criteria analyses.

The knowledge gained from this project will allow the development or revision of planning and action tools for decision makers in order to promote the adaptation of the crop protection sector to climate change.

The results of this study provided producers and agricultural advisors with information about the benefits and limitations of controlled drainage as an adaptation measure against expected climate change.

This project  helped facilitate consultation between actors from the different sectors concerned and helped increase awareness of climate change and adaptation.

The project will provide rural Québec MRCs with greater autonomy in their actions to create knowledge and combat climate change.

This project changed the perception of climate change among farmers and agricultural advisors following discussion meetings and various local, regional and provincial presentations. It also increased the resilience of Québec farms to climate change and made this resilience accessible through information sheets and regional climate change adaptation plans.

The results obtained make it possible to provide dairy farm managers with concrete recommendations for choosing forage mixes adapted to current and future climate conditions and solutions to reduce the risk of heat stress in barns during hot summer weather.

This study has made it possible to improve the post-processing tools used and to verify the relative performance of these statistical methods for estimating the biases that exist in climate studies, which may not be constant even over two periods that are very close in time.

This project will offer support for the process of prioritizing public infrastructure components in terms of vulnerability to climate change, based on evidence.

The CRCM5 driven by MPI projects almost no sea ice in the Arctic Ocean in 2100. Furthermore, warming of 22°C is projected until the end of this century. These robust changes can affect the lives of Indigenous people, animals and the whole planet.

This project will enable modeling of future tree distribution, taking into account both the direct effects of climate on reproduction and growth, and the indirect effects on fire activity.

Once completed, this project will provide a robust research tool for investigating various questions related to hydrology and climate change in Quebec. It will also offer a way for the hydrological modelling community in Quebec to work together and discuss new developments in the field.

This project focused on the modeling of climate change impacts on water resources, specifically in Quebec and Bavaria, which is a growing concern for the scientific community working in the field of water resources.

This project has provided an integrated tool for clearly assessing vulnerability to riverbank erosion and identifying important variables in river dynamics. It has also made it possible to localize areas vulnerable to riverbank adjustments by identifying favourable zones for sediment accumulation in the channel.

Air traffic plays an essential role in the functioning of Nunavik communities, whose infrastructures must be maintained in good operating condition. This study provided a technical description of how permafrost degradation affects these infrastructures.

This project has raised the awareness and responsibility of many Quebec municipalities to issues related to climate risks, in particular the impacts on the built environment and the vulnerability of infrastructures.

This study, carried out as part of the Ouranos consortium’s health program and coordinated by the INSPQ, is part of the water quality component. It focuses on the impact of climate change on precipitation and runoff in urban and rural areas and highlights seasonal differences that may arise.

This project assessed snow cover characteristics and snow physical properties within the CRCM4 Canadian Regional Climate Model in northern Quebec, and helped improving albedo in the Canadian LAnd Surface Scheme (CLASS).

This project allowed examination of cyclone tracks over North America, mainly focusing on those over the east coast and on intraseasonal, interannual and decadal timescales. Moreover, cyclone tracks were simulated by CRCM.

This project involved the development and testing of diagnostic programs for the extraction and analysis of climate data in the Ouranos database. Modifications to the existing programs will enable the processing of data from the new CRCM at 15 km simulations and the North American Regional Climate Change Assessment Program simulations.

This project has enabled the optimization of flood and low-water risk management and the development of proactive adaptation strategies.

This project allowed an extensive analysis of extreme precipitation that occurs in the Saint Lawrence River Valley.

This topic under study reviews the role of adaptation monitoring and evaluation (M&E) frameworks and their contributions to the climate resilience of the electricity sector.
 

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.

These four publications deal with the recommendations on floodplain management in the Lake Champlain-Richelieu transboundary watershed presented to the International Joint Commission.