This research project aims to explore the experiences of public pool and spa staff in meeting the regulatory requirements for water parameter testing and understand user behaviours, needs, and attitudes towards pool and spa water testing equipment. Two groups of interest are Public Health Inspectors (PHIs) who are mandated to conduct inspections at public pools and spas and public pool and spa staff. The regulatory changes made in 2018 require pool and spa operators to test water chemistry parameters on a more frequent basis.
This project will use mixed research methods to investigate the models used to support innovation in Ontario’s healthcare facilities. The research will improve our understanding of how, and why healthcare organizations can participate in more open innovation processes. Such approaches have been shown to improve the breadth and quality of new products and service development, but knowledge around how best to approach open innovation in healthcare remains low.
Greenfield Global is currently developing a conversion process to produce jet fuel from renewable feedstocks. Collection and densification of different biomass waste materials and municipal waste at satellite facilities to produce bio-oils, which are then processed at a central facility, is expected. The first processing step at the central facility is supercritical water gasification and it is the focus of this project. The bio-oils are converted by supercritical water gasification to produce synthesis gas.
Greenfield Global is developing a process to produce jet fuel from renewable materials, such as waste biomass and organic municipal waste. The renewable materials are first converted to a synthetic oil and then converted into jet fuel. This project deals with the final step in the process, namely, to convert the synthetic oil to jet fuel. Jet fuel must meet stringent international specifications which makes it difficult to develop an alternative fuel for aviation.
Across many occupational settings, workers who are injured on the job receive a percentage of their lost earnings as they recover during the time they are unable to work. At the time of injury, trained professionals assign each of these injured workers an expected return date based on the severity of their injury.
The COVID-19 pandemic has challenged us with social isolation, financial uncertainty, and daily life disruptions. Parents and children may be uniquely impacted as parents attempt to navigate the stressors of working from home, caring for children, and, potentially, caring for their elderly parents and other family members. Children and youth, in turn, are influenced by parental anxieties that may exacerbate the child’s/youth’s own mental health concerns.
Many babies die within the first month of life from infectious diseases. Despite successful neonatal vaccination programs, it is not yet possible to accurately predict if a vaccine will work on a newborn child, at the individual “personalized” level. We need to better understand the mechanism of antibody generation after vaccination to improve immunization programs. This project will work in that direction by analyzing novel data obtained from neonates in The Gambia and then validate the findings with data from Papua New Guinea (PNG).
Jackfish SEC is a Saskatoon-based, for-profit company that makes specialty scientific equipment for academic and industry researchers. These tools are all based on vibrational spectroelectrochemistry – the use of light to study the molecules participating in reactions at electrode surfaces. The company wishes to extend its product line by capitalizing on the fundamental work being developed in Professor Ian Burgess’ research group at the University of Saskatchewan. Specifically, the company is looking to develop new tools for studying reactions related to electroctalysis.
Aortic aneurysms are the result of a complex process that culminates in an irreversible loss of structural integrity of the aortic wall with consequent weakening and dilatation associated with rupture risk and high mortality.
This project will evaluate methods of capturing images in underground hydroelectric facilities for the purpose of generating 3D models to be used for inspection. These facilitates are very dark, wet, and large with complicated geometries. Capturing images in these environments suitable for 3D modelling is challenging and, in some cases, not possible with current technology. Methods of analysing the 3D models, as well as automating the analyses, will also be investigated. Current methods of analysis are labour intensive and lack concise metrics to describe condition.