The Social Implications of Agri-Genomics
What are the barriers and opportunities for the just transition of agri-genomic technologies in Canada?
What tools are most needed and most effective to facilitate the just transition of agri-genomic technologies in Canada?
Interactive map displaying the outcomes of a research effort that modelled future agricultural suitability under different climate change scenarios. The model outcomes are displayed using the map-based platform. When first accessing the map, click the data layers icon above the left panel to get started, and then expand the 51污漫 Climate Predictions category to explore the data. Select and expand a climate scenario category to see the model outcomes for a particular climate future, and the expand the Crops category to find and display the data layers for future agricultural suitability for different crops. Use the time slider at the bottom of the screen to see the data for a particular year between 2020 to 2100), and expand the Legend on the right side of the screen to see the agricultural suitability values, from 0 (not suitable) to 1 (most suitable). More information on the research project can be found in .
This tool was developed by researchers from the Transdisciplinary Research on Integrated Approaches to Sustainability (TRIAS) lab, led by the Canada Research Chair in Climate Change, Biodiversity, and Sustainability at Royal Roads University. also serves as the co-project lead for The Social Implications of Agri-Genomics project.
The (ATAS) is a tool designed to help researchers and policymakers understand how different policy interventions and farmer/farm characteristics influence the probability of adopting agricultural technologies (i.e., agri-tech). ATAS specifically focuses on technologies in the areas of digital agriculture, controlled environment agriculture, and agri-genomic technologies. ATAS simulates the likelihood of agri-tech adoption based on the type of agri-tech to be adopted, whether climate and geopolitical conditions will result in increased or decreased production, the types of policies that are in place to incentivize adoption, and the socioeconomic characteristics of the local farmer population.
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This tool was developed by researchers from the Transdisciplinary Research on Integrated Approaches to Sustainability (TRIAS) lab, led by the Canada Research Chair in Climate Change, Biodiversity, and Sustainability at Royal Roads University. also serves as the co-project lead for The Social Implications of Agri-Genomics project.
Interactive of a hypothetical agri-tech park located in Langford, British Columbia, Canada. This tool was developed by researchers from the Transdisciplinary Research on Integrated Approaches to Sustainability (TRIAS) lab, led by the Canada Research Chair in Climate Change, Biodiversity, and Sustainability at Royal Roads University. TRIAS also serves as the co-project lead for The Social Implications of Agri-Genomics project.
This tool will be presented on web-based and virtual reality platforms and presents different scenarios for creating urban agriculture agri-tech parks, providing opportunities for participants of this tool to explore how different agri-technology facilities, such as vertical farming and cellular agriculture could be designed in their communities and neighbourhoods.
Visualization of Diverse Food Assets in an Agri-Tech Park
Project team members of the Social Implications of Agri-Genomics research team attended the Cultivating Resilience Summit: Advancing Climate-Smart Agri-Food in Vancouver, BC, presented by AG-ACt, BCCAI, BC ACARN & SFU Public Square. Four team members, pictured below, submitted a poster presentation on their research that approaches the development of the agri-genomic technology industry from the framework of a Just Transition to ask: How will these emerging agri-production systems engage with existing agricultural labour regimes? In this poster, these four researchers focused on three prominent themes emerging from conversations relating to Land, Food, and Work in Conversations with Cellular Agriculture.
Research team members Stephanie Eccles, Jessica Mukiri, Angela McIntyre, and Alesandros Glaros (pictured left to right), with a poster presentation of their collective research. Cultivated Resilience Summit, October 2025
| Activity | Activity Description | Status |
|---|---|---|
| 1. Scoping and Systematic Reviews | Comprehensive reviews of emerging agri-genomics for climate mitigation, focusing on potential risks to marginalized communities, supported by interviews and focus groups. Also reviewing best practices from toolkits addressing agriculture, climate change, social justice, and genomics. | Complete |
| 2. Survey |
Large-scale national survey of public perceptions of agri-genomics applications that show potential climate mitigation, which informs a focused Delphi survey with industry, research, and policy experts. |
Complete |
| 3. Modelling |
Integrated modelling (system dynamics modelling and supply chain analysis) for the potential climate benefits (carbon mitigation and sequestration) of agri-genomics to develop different GHG mitigation scenarios and their associated socio-economic trade-offs. |
In progress |
| 4. Case Studies |
Qualitative case studies based on national applicability, supplemented by expert interviews and focus groups, to identify possible risks associated with these technologies for marginalized groups, and potential mitigation strategies to increase equity outcomes. |
In progress |
| 5. Knowledge Mobilization | The project will collaborate with the KMIC hub and the Canadian Science Policy Centre to host research workshops with experts, policymakers, and ICT teams to develop a "Just Transitions Toolkit for Agri-Genomics." This toolkit will be action-oriented, co-created, and shared on this website, mobilized through networks built throughout the project. | Ongoing |
