Grants and Contributions

Quantum communication and science tests over large distances have potential applications for secure communication, for higher efficiency super dense coding, for interfacing of future quantum sensors, and for quantum computers. In addition, foundational science will strongly benefit from tests of long-range entanglement as we probe the boundaries of quantum mechanics over ever-increasing distances, as well as at velocities and gravitational potentials not possible on ground.

The objective of this project is testing the suitability of the quantum payload and its components necessary for deep space missions, i.e. geostationary earth orbit (GEO), lunar and even further. The project team will design, build and test components of a quantum payload and verify their status for operating in relevant harsh radiation and thermal environments.

The main outcome of this research will be an advanced technology roadmap and design of the next generation of quantum payloads suitable for global quantum communication networks.

Methane has been observed in the Martian atmosphere for nearly two decades, yet key questions about the Martian methane cycle remain unanswered. On the Earth, most methane produced is biological and it is therefore a key question of the astrobiology community as to whether the Martian source, likely located deep underground, is similar.

The Martian Atmospheric Gas Evolution (MAGE) experiment will develop the science readiness level (SRL) of a potential contribution to a future landed space mission on Mars to measure the evolution of methane near the surface. It will help us to understand what is producing this gas in the present day and whether that source is biological or geological in origin.

MAGE in based on technology called Integrated Cavity-Enhanced Optical Spectroscopy (ICOS), a sensitive technique that can measure methane at very low concentrations and offers the possibility of making unprecedentedly frequent measurements at sensitivities comparable to the best current techniques.

Hyperspectral remote sensing is important for effectively monitoring the fast changing natural environment caused by natural and human factors.

The project aims at demonstrating the potential of an innovative technology that can increase the spatial resolution of the future Canadian WaterSat hyper-spectral mission, thus increasing detection of smaller features on the Earth surface. Successful results can significantly extend its application scope, from water-based applications to water and land applications. It will help Canadian government and industry improve their efficiency and accuracy in environmental monitoring, helping meet national needs for informed decision making, including climate change research and policy making.

Support aboriginal communities in becoming successful participants in commercial fisheries and aquaculture

To continue to provide a service to Canadians by disposing of surplus lighthouses to eligible recipients who wish to assume ownership to preserve the heritage value of the lighthouse and keep it accessible to the public

The Habitat StewardshipProgram (HSP) contributes to the recovery of endangered, threatened, and other species of concern, by engaging Canadians in conservation actions to benefit wildlife to protect aquaticspecies at risk.

To carry out the Government of Canada’s 2018 Nature Legacy for Canada, which includes supporting and leveraging efforts to protect and recover aquatic species at risk; and building Indigenous capacity.

Support aboriginal communities in becoming successful participants in commercial fisheries and aquaculture

To carry out the Government of Canada’s 2018 Nature Legacy for Canada, which includes supporting and leveraging efforts to protect and recover aquatic species at risk; and building Indigenous capacity.

The Habitat StewardshipProgram (HSP) contributes to the recovery of endangered, threatened, and other species of concern, by engaging Canadians in conservation actions to benefit wildlife to protect aquaticspecies at risk.