Related projects
Discover more projects across a range of sectors and discipline — from AI to cleantech to social innovation.
Mitacs brings innovation to more people in more places across Canada and around the world.
Learn MoreWe work closely with businesses, researchers, and governments to create new pathways to innovation.
Learn MoreNo matter the size of your budget or scope of your research, Mitacs can help you turn ideas into impact.
Learn MoreThe Mitacs Entrepreneur Awards and the Mitacs Awards celebrate inspiring entrepreneurs and innovators who are galvanizing cutting-edge research across Canada.
Learn MoreDiscover the people, the ideas, the projects, and the partnerships that are making news, and creating meaningful impact across the Canadian innovation ecosystem.
Learn MoreSoftware testing and debugging take up between 30 and 50% of the development cost in embedded systems. Despite this large percentage and the associated enormous costs, only little attention has been devoted to debugging of embedded real-time systems. Apart from in-circuit emulators for standalone systems, ad-hoc methods such as blinking lights to indicate errors and morsing error codes via beepers are still widespread debugging methods.
One way to debug systems is by creating application traces at run time by instrumenting the software. The instrumented mechanism, however, must preserve the logical correctness and respect the timing and resource bounds of the application. In our research, we investigate mechanisms for instrumenting and debugging real-time embedded software that satisfies a specified set of constraints.
Two possible student roles are available:
Theory role: We will investigate new instrumentation techniques at the level of control-flow graphs and timing diagrams and evaluate the resulting algorithms (complexity, correctness, soundness). We will further compare the new algorithms with the existing algorithms (language inclusion, counter-examples).
Practical role: We will investigate already established instrumentation techniques and evaluate their influence on logical correctness as well as temporal and resource bounds. We will use a real-time operating system and measure the effect of different algorithms on a standardized benchmark for real-time embedded systems.
Dr. Sebastian Fischmeister
Supriya Rao
Engineering - computer / electrical
Information and communications technologies
University of Waterloo
Globalink Research Internship
Discover more projects across a range of sectors and discipline — from AI to cleantech to social innovation.
Find the perfect opportunity to put your academic skills and knowledge into practice!
Find ProjectsThe strong support from governments across Canada, international partners, universities, colleges, companies, and community organizations has enabled Mitacs to focus on the core idea that talent and partnerships power innovation — and innovation creates a better future.