MicroPilot, a company located in Manitoba, is specialized in design and manufacturing of autopilot systems for unmanned aerial vehicles (UAVs). The company’s interest is to develop accurate simulation models of various UAVs, upon which the autopilot systems are tuned and verified first. The goal of this project is to evaluate and improve the model structure adopted, and develop appropriate tools for extracting accurate models to be used by the simulation.
In partnership with Zenfri Inc, this project seeks to facilitate the successful introduction of a mobile game called Clandestine Anomaly to the mobile game market. Due to the embryonic stage of the mobile game market this research will use primary and secondary research methods to create a market analysis and inform the market strategy. Firstly, this research will provide an understanding of the business environment by analyzing successful products and their marketing strategies along with industry trends and characteristics.
The ability of observing the dynamics of an interconnected power system spread over a large geographical area in real time using synchrophasor technology enables the design of power system controllers against system wide disturbances which could lead to catastrophic failures. Currently, the synchrophasor technology is primarily used for monitoring applications and its potential for using in protection and stability control is not fully utilized.
Water treatment plants in Manitoba use surface water with high organic content as their source of water supply. Organic carbon reacts with disinfecting chlorine forming potentially carcinogenic disinfection byproducts. Portage la Prairie water treatment plant is an example of typical Manitoba lime/soda water treatment plants facing the challenge of removal of organic carbon. Coagulation and Granular Activated Carbon (GAC) are used in this plant for removal of Dissolved Organic Carbon (DOC).
Our previous studies showed that DOC cannot be efficiently removed by these two processes.
Microwave imaging has gained interest in biomedical imaging because of its non-ionizing and non destructive approach. It will be quick, comfortable and cheap compared to current imaging modalities available such as X-ray tomography and magnetic resonance imaging (MRI). In microwave imaging, the major challenge is the design of microwave sensors for receiving scattered signal from the target. For effective signal penetration, the frequency of operation has to be low (below 7 GHz), and at this frequency, the sensor size becomes large.
Recently, there has been a growing interest in meta-analysis in many areas including medicine, education, psychology, social sciences. In literature, there are two main approaches used in meta-analysis: the fixed effect model and the random effects model. Under the fixed effect model we assume that there is one true effect size which is shared by all the included studies. The combined effect is our estimate of this common effect size. If there is no statistical heterogeneity among studies, differences across studies may be due to random variation and fixed effects model may be appropriate.
We will determine use levels and patterns of selected pharmaceuticals in the Manitoba population and selected subpopulations, and to investigate the magnitude of such use during episodic events (e.g., resorts occupied only part of the year, with likely different drug use patterns). Our hypothesis is that an appropriate analysis of surrogate materials, namely wastewaters, provides a realistic measure of the amount and types of many drugs used by the public, and the extent to which these drugs may contaminate surface waters receiving wastewater discharges through tracer analysis.
The current focus of this research group is developing a scanning probe microscope based approach that will enable us to perform dielectric loss spectroscopy (i.e. loss tangent measurements) on thin film samples with submicron spatial resolution. Our goal is to develop this technique, based on a dynamic form of electrostatic force microscopy, into a useful addition to the suite of probing approaches available.
The proposed research is to design, develop and validate an artificial ear-canal that simulates the electrical noise conditions that exist when taking EVestG measurements by associated bio-signal amplifiers. Such a simulator will allow the rapid, rational and accurate refinement of such amplifiers and tympanic electrode; it will also allow improvements to be made to the developed signal extraction software algorithms.
The civil engineering student completed a research project on simulations of barrier walls for bridges to calculate their load bearing capacity with Dr. Ehab Salakawy. Such simulations will help municipal civil engineers to design stronger, more long-lasting structures across Canada.