In this project, we develop a framework to use the data from fiber sensing technologies to smart monitoring of Oil and Gas Reservoirs. The project involves extensive lab experiments simulating different monitoring conditions. Different configurations for installation of sensing equipment will be examined. The optimum location of tubing will be also determined. Signal processing methods will be used to extract useful information from the raw fiber-sensed data. Through experiments, we will record and analyze the relationship of fiber-sensed signals and the flow conditions.
Automatic blood pressure monitors with inflatable cuff currently in use are inaccurate and produce inconsistent results. Even small movements during measurement can affect the measurement and lead to inaccurate diagnosis. This project aims to improve the accuracy of blood pressure monitors using advanced thin film sensors that can greatly improve the diagnosis. The project will enable a Canadian company to develop advanced technology that can put Canada as one of the hubs of blood pressure monitoring technology that only a few countries can boast of.
This research project will develop recyclable nanoparticles for water treatment challenges in Canadas pulp & paper industry. Key advantages of these recyclable nanoparticles are that they are light-activated, do not require the addition of any treatment chemicals to the water, and can be re-used and cycled continuously.
Most of the heavy oil and bitumen produced in Western Canada is transported through pipelines to refineries in North America. Prior to transportation, the high viscosity of those fluids must be reduced by either dilution with a light solvent or upgrading. The high costs associated with handling diluents has increased the interest in upgrading; that is, the thermal conversion of high viscosity heavy oil or bitumen into a less viscous product.
High capital and operational costs together with the need of large process units remain a challenge for the widespread application of carbon capture and storage in carbon-intensive industries. Industrial Climate Solutions Inc have proposed the utilization of the Regenerative Froth Contactor (RFC) - a technology originally developed as a biological-chemical filter - as a process for carbon capture and storage. The use of a RFC could significantly improve the efficiency and robustness of the capture stage with significant size and cost reductions.
The goal of this research project is to study and develop optimal strategies for operating anaerobic co-digestion processes involving organic waste with cellulosic substrate derived from paper wastes. The effects of enzymatic treatment to boost degradation of the paper wastes in anaerobic conditions will also be evaluated. Furthermore, best approaches for transitioning feedstock compositions, such as from lower to higher paper content and vice versa, will be investigated.
A local Canadian company that works on designing and manufacturing completely customizable and smart in-door ecosystems for sustainable production of fresh crops is our industrial partner. Our partner is dealing with the presence of ethylene in the atmosphere in the growth chamber. In this research, we will investigate the possibility of implementing an innovative technique that uses ozone assisted catalytic oxidation to convert ethylene to H2O and CO2 that are favorable for the developed technology by our partner.
Solids exist as crystals, amorphous or subcooled liquids. The degree of crystallinity determines the long range order in a solid phase. Molecules when transferred from the solution to the solid phase may take many different crystal forms (polymorphs, solvates/hydrates, salts, co-crystals). Theoretically, there are 230 space groups describing the diversity of a crystalline material. About two thirds of pharmaceutical small molecules exist in more than one polymorphic solid form. Crystallization of polymorphs still has a touch of art.
This proposal is to accelerate the Aereus Technologies development of antimicrobial coatings. Antimicrobial coating has been becoming an effective solution to battle the hospital-acquired infections. Aereus Technologies is developing an antimicrobial coating consisting of marine paint and biocidal copper-alloy based microparticles. One of the key concerns for this new coating is that the microparticles are expected to oxidize when they are exposed to human palm sweat or disinfection agents in healthcare settings.
As for any industry, the companies are constantly trying to improve their products. This can be done directly on the raw materials or on the production lines. But profitability can also be improved by reducing wastes while increasing production rates. So this project will investigate the processing conditions and adhesion formulations in terms of mechanical, thermal, chemical and adhesion properties. This will be done by optimization of both processing condition and concentration of the components.