Related projects
Discover more projects across a range of sectors and discipline — from AI to cleantech to social innovation.
Mitacs brings innovation to more people in more places across Canada and around the world.
Learn MoreWe work closely with businesses, researchers, and governments to create new pathways to innovation.
Learn MoreNo matter the size of your budget or scope of your research, Mitacs can help you turn ideas into impact.
Learn MoreThe Mitacs Entrepreneur Awards and the Mitacs Awards celebrate inspiring entrepreneurs and innovators who are galvanizing cutting-edge research across Canada.
Learn MoreDiscover the people, the ideas, the projects, and the partnerships that are making news, and creating meaningful impact across the Canadian innovation ecosystem.
Learn MoreIn papermaking, a slurry of wood fibres, which are approximately 2 millimetres long and 30 microns in diameter, is drained through a forming fabric. In this drainage process the fibres get trapped by the fabric as the water drains through it. The actual drainage process is obviously highly complicated because the forming fabric geometry is complex, the wood fibres may interact with one another, and the wood fibres have variable properties. However, we may gain some understanding of dewatering by considering simplified versions of the process.
A first simplification of the process is to consider only highly dilute suspensions of fibres in water (or in the limit, only individual fibres in water), for which interfibre forces are negligible. A further simplification of dewatering is to replace the three-dimensional forming fabric with a simple linear array of cylinders. A final simplification is to replace the highly variable wood fibres with more uniform fibres, such as nylon fibres. In summary, we are interested in the interaction of a nylon fibre with an array of cylinders, as water flows through the cylinders. The geometry is shown in Figure 1 below. A high speed video camera will be used to capture the fibre motion as it forced by the flowing water onto the cylinder array. For some fibre geometries and flow speeds the cylinder array is expected to trap the fibre, whereas for other geometries and speeds the fibre will slip off the array.
The Globalink student will assist a graduate student in developing the apparatus shown in Figure 1. He/she will then conduct experiments on fibres of varying lengths, diameters, mechanical properties and will develop a correlation to predict fibre trapping as a function of the relevant non-dimensional variables.
Dr. Sheldon Green
Gowtham Garimella
Engineering - mechanical
Pulp and paper
University of British Columbia
Globalink Research Internship
Discover more projects across a range of sectors and discipline — from AI to cleantech to social innovation.
Find the perfect opportunity to put your academic skills and knowledge into practice!
Find ProjectsThe strong support from governments across Canada, international partners, universities, colleges, companies, and community organizations has enabled Mitacs to focus on the core idea that talent and partnerships power innovation — and innovation creates a better future.