Grants and Contributions

OCAD U CO offers IRAP clients a nine-week participatory research workshop to learn how to foster empathy with customers, uncover customer needs, and develop impactful value propositions that align with customer motivations and behaviours.

The goal of this project is to develop an interactive platform for treating sleep problems in shift workers, as well as to integrate portable devices for the development of a learning retention program, and to study the feasibility of estimating and using EMA (Ecological Momentary Assessments) related to circadian rhythms.

OCAD U CO offers IRAP clients a nine-week participatory research workshop to learn how to foster empathy with customers, uncover customer needs, and develop impactful value propositions that align with customer motivations and behaviours.

The totaliQ platform will leverage existing platform data augmented with new project planning metadata to surface learnings from similar past projects and generate project insights and risk warnings during project planning.

The purpose of the project is to equip students with the necessary knowledge and skills to safely navigate the Internet and understand cyber hygiene, but in a fun, interactive experiential learning environment.

This project focuses on developing advanced methodologies and artificial intelligence algorithms to validate satellite systems such as EnMAP, Sentinel-2, and PlanetScope, crucial for monitoring Canada's vast peatlands. By leveraging ground-based measurements and hyperspectral drone technology at sites like the Mer Bleue Peatland Observatory, the project aims to enhance Canada's capability to monitor and understand peatland carbon storage and its implications for climate change mitigation.

Joining the leadership in the space observations of climate change, Canada aims to contribute three instruments, TICFIRE, ALI and SHOW, jointly known as HAWC, to co-fly with the other instruments in the NASA-led AOS satellite mission. This project proposes to conduct research activities and organize dedicated community workshops to establish and grow the Canadian science development team (SDT) for AOS/HAWC before launch. The research activities will focus on four essential areas of the HAWC science: satellite data comparison techniques, weather forecasting, climate modeling, and other science applications. Specifically, the four proposed sub-projects will explore i) impact of geophysical variability and trajectory hunting techniques for satellite data comparisons, ii) satellite detection of snowfall and snow accumulation across Canada’s North, iii) thermodynamic anomalies and their radiative impacts in extreme weather events, and iv) cloud feedback and its far infra-red signature in global climate models. The outcomes are expected to further the development of higher-level data products, science applications and services, advancement of the technology to integrate AOS/HAWC data in weather and climate modeling, e.g., through data assimilation or process-level model validation, and establishment of methods to transfer the geophysical information to society such as for policy guidance and economic benefits. With the growing community awareness and interest, the contribution for this project will also be used to leverage additional funding, such as the NSERC/Alliance, to support HAWC science and applications development in other areas such as policy and economics.

Support McGill University with the Faculty Mobility Proposals of 10/15/18 & 10/17/18 for professors Jorge Armony & Sabrina Wurzba.

Following the JWST ERS and Cycle 1 GO Announcement of Opportunity published on June 14, 2021, the CSA is providing funding via a Grant Agreement to the university to conduct their research using the JWST data.

The project will monitor K2-141b for three complete orbits of the planet with the MIRI LRS on the James Webb Space Telescope for just under 21 hours of time. These observations will allow measurements the vertical atmospheric structure on the dayside of the planet, to determine the presence of an extended atmosphere via the planet's nightside temperature, and to search for rock clouds that might form as the supersonic winds blowing towards the nightside cool and condense.

Bone loss in astronauts is a major challenge for long-duration space exploration. In weightlessness, muscles are used less often, thus providing less stimulation of bone. In addition, astronauts often have disrupted circadian rhythms. It is known that night and rotating shift workers display an increased incidence of bone fractures. Molecular mechanisms underlying microgravity-induced bone loss are still unclear. This research aims to determine how circadian rhythms contribute to mechanical unloading-related bone loss using mouse models. Understanding the links between circadian rhythms, microgravity and bone adaptation will help to prevent bone loss in long-duration human space flights.