Oil recovery from underground reservoirs with small pore-scales can have environmental impacts that can be minimized with prior knowledge of the physics behind fluids/fluids and fluids/rock interaction and the type of fluid to employ for oil extraction. Currently, these analyses can be performed in laboratories at reservoir conditions with rock samples in large pressurized vessels capable high pressure (~15 MPa) and temperature (~150 C). However, these measurements take weeks to complete and there is a test-to-test variation due to the lack of repeatability in the rock sample.
Autism spectrum disorder (ASD) is a kind of chronic neurodevelopmental disorders that detrimentally affect the behavior and development in children. There is a tight need for efficient treatment. Scientific evidences have shown that the gut microbiota as well as their metabolites may mediate the responsiveness to changes in diet (e.g. ketogenic diet). However, clinically relevant application of microbiota-targeted treatment is limited. Herein, the project aims to test the neurobehavioral and neurometabolic consequences of probiotic using a mice model of ASD.
The Project’s objective is to continue with development and optimization of the promising HTL biocrude upgrading approach that has been executed during the previous MITACS Converge/Accelerated project. The activities are going to be focus on in-situ hydrogen production to limit external cost of hydrogen and process optimization for the obtention of Jet and Marine fuel blend-stocks for transportation fuels.
The greatest river in Calgary, Bow River, is an important source of water for industrial, agricultural and living activities for city and people of Calgary. With the incredibly fast of urbanization in Calgary, the natural landscapes are gradually replaced by impervious areas, such as urban streetscapes, houses and buildings.
Safety critical software systems such as those that control nir navigntion nre subject to very high standards of quality. They need to explicitly provide system requirements nnd make sure there nre enough test cases that nssure an acceptable level of quality, per requirement. However, with the current fnst pace ofsollworo development, sometimes the program and tests are solid but the requirement documents get outdated. It is also possible thnt tho requirement documents are up-to-date, but the tests nre incomplete.
In the last decade optimization is expanded in many applications from food production to sophisticated applications such as engine fuel efficiency. In the proposed package, it is tried to apply optimization techniques along with physics based analytical and semi-analytical methodologies to create a compelling framework which can help thermal-process based oil industry to reduce their GHG and also better evaluate their CAPEX. Many SAGD projects are overspent on their facilities due to under prediction or overprediction of their oil production expectations.
Carbon nanofiber is a material with extraordinary mechanical, thermal, electrical, and chemical properties. It has applications in a wide variety of industries including transportation vehicles, concrete, electronic devices, textiles, ink, coatings, lubricants, tires, and agriculture. Yet, the production of carbon nanofibers is an expensive and energy-intensive process. This project targets to develop Carbonova cycle, a catalytic chemical process that enables producing premium quality carbon nanofibers from utilizing greenhouse gases and waste heat.
During her undergrad studies at the University of Calgary, Taylor Markham found her passion for mathematics and how cryptography demonstrates the use of mathematical concepts in everyday life applications.
In 2019, she was the first Faculty of Science student at the University of Calgary to apply for the Mitacs Globalink Research Award. Through this program, Markham spent her final summer as an undergrad student conducting research at the University of Hawai’i at Mānoa, where she was supervised by Annie Carter in the Department of Mathematics and Statistics.
Biomass is a key feedstock for the production of renewable fuels and chemicals with potential zero carbon emissions and at low cost. State of the art conversion of biomass to bio-fuels focuses on the pyrolysis of the feedstock at high temperature in conventional reactors. However, current technologies face many challenges to achieve lower costs than fossil fuels, higher yields, improved energy efficiency and product quality. This project aims to evaluate the production of renewable fuels from biomass using a dual spinning-disc reactor.