In this theme, we will engineer advanced fractionation processes that transform canola meal into high-value cellulose- and protein-rich materials. By optimizing mechanical, thermal, and chemical steps, we safeguard critical molecular structures while maximizing yield. This approach significantly reduces waste generation at its source and results in two distinct feedstock streams suitable for further innovation. Each stream is characterized for purity, functionality, and scalability, ensuring that subsequent applications—from bioplastics to renewable adhesives—build on a robust foundation.

Importantly, our fractionation protocols integrate life cycle assessment principles, allowing us to refine each stage based on economic and ecological factors. In doing so, we improve the efficiency and sustainability of conventional processing and give producers new opportunities to capture revenue from what would otherwise be discarded biomass. By bridging fundamental chemical engineering methods with real-world constraints, we strengthen Canada’s canola industry and provide the raw materials needed to innovate across polymer science, nanomaterials development, and sustainable agricultural practices.

Ultimately, this theme sets the stage for wide-ranging impact, making canola meal a keystone ingredient in a greener bioeconomy.