Projects - search

Small Island Developing States (SIDS) are among the most vulnerable to climate change, consistently ranking high on global risk and climate vulnerability indices. The Intergovernmental Panel on Climate Change (IPCC) Sixth Assessment Report highlights the critical challenges faced by small islands and emphasizes the need for transformational adaptation strategies. 

The RECOVER project addresses these challenges through the lens of “socio-metabolic risk” (SMR) – a systemic framework focused on the availability, integrity, and circulation of critical resources such as energy, water, and materials, which are vital for societal wellbeing. Socio-metabolic risk can be compared to circulatory health issues in humans: both limit an entity's ability to adapt and respond to significant disruptions. 

In the last decade, it has become clear that the impacts of climate change are starting to severely affect the natural environment, economy, and communities across the globe. The changing global climate presents significant risks, including extreme temperatures, floods, wildfires, and hurricanes. For Canadian businesses and their international partners, supply systems that can withstand or adapt to these changes will be essential for building resilient societies. 

The project aims to define a future system using hydrogen to complement current clean technologies and integrate different sectors in Canadian municipalities for the net-zero transition, and to quantify the associated economic and environmental benefits and risks.

The project will develop a decision-support framework for direct air capture (DAC) that acknowledges the scale of the enterprise, the immersive nature of the system with other systems, and the substantial amount of uncertainty surrounding its deployment. We use a dynamic adaptive policy pathways approach, a method developed to address decision making under deep uncertainty, to generate a set of policy actions and contingency plans to navigate the development and deployment of DAC in Canada.

The project aims to improve methane emission monitoring at landfills by combining state-of-the-art soil measurements with a novel application of hyperspectral infrared imaging. The team will also develop methods to reduce emissions using methane-consuming microbes from landfill cover soils. This project targets the large, poorly quantified emissions from Canadian landfills and provides information, tools, and methods for practical solutions.

This project will develop nature-based climate solutions that integrate across food-energy-water systems in complex working landscapes. Iterative consultation with stakeholders will guide the design of SOLUTIONSCAPES, portfolios of spatially explicit restoration scenarios, to achieve a net-zero future while also prioritizing water quality and other ecosystem service outcomes.

The project supports Canadian municipalities to monitor, measure and achieve their greenhouse gas (GHG) mitigation goals. The aim is to ensure emissions reduction projects, policies and programs are aligned with Canada's national reduction commitments.

The research will develop a simple, dynamic carbon and GHG scorecard that will complement existing green building standards by tracking the state and trajectory of residential developments. The scorecard’s potential to induce developer behavioral change by incentivizing green infrastructure investments through social norms and status-seeking behaviour will be tested.

The Can-Peat project will quantify the potential of peatland management in Canada to contribute to climate change mitigation as a nature-based solution. This goal will be achieved by creating an open access database of peatland distribution, condition and vulnerability, innovative modelling response to disturbance, and developing decision-support tools for climate friendly management.