Leading product for our card and payment fraud teams. Working to make Neo credit cards the best and safest way for Canadians to spend their hard-earned money. If you have any feedback about Neo’s credit card experience, hit me up!

Lead the design, implementation, and launch of Neo’s from-scratch credit card processing and issuing platform. Scaled processing from hundreds of thousands of transactions a month to millions.

Maintained and extended Neo’s most critical system—the internal ledger of all money movements. Redesigned the interest accrual and payment engine to allow it to scale beyond the requirements of tens of thousands of accounts to well over hundreds of thousands of accounts (and more!).

MSc Biomedical Engineering with Medical Imaging Specialization

Developed a web-based real-time energy price forecasting application to estimate market energy prices for Ontario based on historic price, supply, and demand.Responsible for advising professors, as well as supervising graduate students and summer students on effective software development practices.Tools and languages used: Bootstrap, Git, MeteorJS, Meteor Galaxy, MongoDB (MLab), React.

Mentored and graded fourth-year software engineering students in their Engineering Capstone Design projects.

Act as an academic advocate for BME students and ensure they are supported in their academic needs. Organize academically related events and implement new academic related programs.

Developed a surgical device that enables doctors to visualize a patient’s internal anatomy, segmented from medical images, using augmented reality. The anatomy is presented in the correct anatomical position, scale, and orientation, and thus the user can look around the patient to navigate around the augmented anatomy.Tools and languages used: C/C++, CMake, Git, Google Test, OpenCV, OpenGL.

Developed Tactics, an application for planning stereotactic neurosurgery for the Department of Clinical Neurosciences at the Foothills Hospital in Calgary, Alberta. The application is currently being used to plan surgeries to diagnose and treat epilepsy as well as biopsy brain tumours. The application was written in C++ using Qt4.8 and VTK5.10. The application is currently being open-sourced, and is free to download for surgeons to use across the world. An interactive/agile development plan was using to develop the application, and product delivery was conducted within six months of beginning the project. Test-driven development was used to ensure a robust application. Biweekly meetings with neurosurgeons were used to gather frequent feedback, and thus guide development of the application.Developed an application to analyze the rate of blood flow in the brain by converting the brightness of the blood in contrast-enhanced magnetic-resonance images into a concentration of contrast present within the blood. The application was developed for the Canadian Atherosclerosis Imaging Network to combat atherosclerosis as well as its manifestations such as stroke. The application was written in C++ using Qt4.8, ALGLIB3.6 and VTK5.10.Developed a framework to facilitate rapid application development at the centre. The framework was developed as an extra-curricular activity and has been adopted as the underlying framework for new applications within the centre.Developed a set of wrapper-classes for VTK's rendering windows and renderer classes. The wrapper-classes allow the user to create dynamic renderer layouts by providing a hierarchy of parent and children view objects.Presented a poster on the performance implications of performing singular-value-decomposition-based deconvolutions in C++ versus Matlab.

Designed a hardware configuration and software application to facilitate state of the art real-time three-dimensional magnetic resonance imaging. The application was written in C++ using several open source libraries such as the Qt 4.7 framework, Fastest Fourier Transform in the West (FFTW), and the Visualization Toolkit (VTK). Programming concepts such as multi-threading, socket networking, graphical user interfaces, and events were used within the application. The application was developed, tested, and run on openSUSE 11.4. Git was used to develop and merge additional functionality into the system and maintain versioning.Presented summer research and application prototype to colleagues and supervisors.Conducted a contrast inflow experiment to verify application functionality. An artificial artery was connected to a circulating water pump and was placed in the magnetic resonance imaging scanner. The signal was then suppressed to provide a clear render scene. Contrast was then injected into the pump resulting in a visualization of the contrast passing through the artery in real-time.Authored and submitted an abstract to Biomedical Engineering and Angiography conferences. Presented a poster detailing the application at the 2011 Banff Biomedical Engineering Conference. The presentation was selected as a finalist for the poster competition. Co-authored an abstract based on the application that has been presented in Melbourne, Australia at the ISMRM conference in May 2012.

Created/submitted important regulatory submissions for the efficient production of oil from the Pembina Cardium formation in central Alberta.Analyzed both current and historic well production data for Spry wells in the Killam field to determine the source of irregular, inefficient production of gas. The analysis lead to potential solutions to improve production and revenue.Created interactive, dynamic spreadsheets for easy display of historical Western Canada gas production data. The spreadsheets contained macros in Visual Basic and forecasting models for estimating future trends.Created a database into which the geologists could import raw data and export processed results as graphical overlays in the geoScout GIS mapping software.