Grants and Contributions

This program will connect Canadian SMEs in the bioproducts sector with a Canadian service provider who will help accelerate the commercialization of their innovative products and processes.

Open Ocean Robotics will architect and design the naval architecture, hybrid solar-diesel energy integration, and autonomy control framework for a new Arctic-capable self-righting uncrewed surface vehicle (USV) platform optimized for defence, security, and maritime safety operations in Arctic and northern waters.

The firm plans to hire a recent graduate as a Mechanical/Electrical Designer to support the design and integration of MEP systems within its modular housing platform.

Toronto Fresh Food is developing an advanced automation system to improve efficiency and consistency in meat slicing and packaging operations.

To develop governance functionality built on reasoning mechanisms that leverage the latest advancements in AI, enabling governments to use cutting-edge solutions to optimize performance.

Scale-up green extraction of rye phytase for feed/food to improve the nutritional value of feed and plant-based foods.

The voucher funding program supports Canadian SMEs by connecting them with academic researchers to help develop R&D capacity and reduce risks associated with pursuing new business opportunities. It prioritizes inclusivity by supporting rural, northern, Indigenous‑owned businesses and those led by women and other equity‑deserving groups that often face barriers in accessing research expertise. The program facilitates collaboration through outreach, training, and structured meetings, with measurable targets aimed at generating professional R&D Scopes of Work and advancing projects toward full‑scale research initiatives.

Building enhanced technology to support Alternative Response for Police.

With the transition to a low-carbon economy and the uncertainty of complex international relationships, it is required to secure and enhance the supply of critical battery metals in Canada. The project will develop an innovative process that can produce next generation battery materials precursors through selective pressure leaching and precipitation. Leveraging the fundamental research strengths of Queen's University and the NRC's applied research and scale-up capabilities, this project will advance knowledge in selective battery metal production while semi-automated high pressure high temperature (HPHT) reactor systems for critical metal extraction will reduce human intervention. This project will strength chain, reduce GHG emissions, provide HQP training, and promote sustainable resource utilization.

Continuous improvement of our technology is paramount to our long term success. This project will formalize our development, testing and research processes to continue our improvement and development of our EV Charging Controller.