Grants and Contributions

Whitefish Lake First Nation #459 Utikimat Lake Restoration

This Project will focus on adapting a general learning framework to improvements related to nanophotonic component design. Novel optimization techniques such as inverse design are promising tools to significantly reduce the size of nanophotonic components while maintaining their functionality and performance. Although published results demonstrate various proof of concept miniaturized devices with pre-determined size and aspect ratio, their performances as of now are inferior to the state of the art classical devices which are however much larger, with designs that are highly non-interpretable. In this respect, recent developments in learning generative models through the use of generative-adversarial architecture is a promising technological breakthrough. Specifically, this type of training provides a framework to build neural-network based models capable of generating a diverse set of useful data instances in high-dimensional spaces, which are well-performing designs in this context

Hiring a youth to support building software application.

This Project will focus on adapting a general learning framework to improvements related to nanophotonic component design. Novel optimization techniques such as inverse design are promising tools to significantly reduce the size of nanophotonic components while maintaining their functionality and performance. Although published results demonstrate various proof of concept miniaturized devices with pre-determined size and aspect ratio, their performances as of now are inferior to the state of the art classical devices which are however much larger, with designs that are highly non-interpretable. In this respect, recent developments in learning generative models through the use of generative-adversarial architecture is a promising technological breakthrough. Specifically, this type of training provides a framework to build neural-network based models capable of generating a diverse set of useful data instances in high-dimensional spaces,
which are well-performing designs in this context

Ventilation is an important layer of protection against COVID-19 transmission in indoor environments. However, many Canadian buildings lack a mechanical ventilation system that can provide outdoor air and/or air cleaning. Examples of these buildings include schools, long term care homes, and heritage buildings. As a result, there has been an emergence of building technologies and products aimed at mitigating airborne transmission of COVID-19 in buildings lacking a mechanical ventilation system. Unfortunately, many of the technologies and products that have emerged throughout the course of the COVID-19 pandemic lack experimental and field-validation to show they can effectively mitigate airborne transmission of respiratory viruses. In addition, some technologies contain various design flaws that can be detrimental to the health and safety of occupants, making them infeasible solutions. For example, many solutions are too difficult to install/position, too difficult to maintain, too expensive, too energy intensive, not designed optimally in terms of their air intake and exhaust, or result in other unintended negative health consequences (such as the generation of ozone and other contaminants, or produce disruptive levels of noise).
There is a need in the commercial marketplace for alternative building technologies and products that can safely and effectively mitigate airborne transmission of respiratory viruses in buildings lacking a mechanical ventilation system. The proposed solution should be capable of ensuring delivery of clean air to occupied zones both during and after occupancy while maintaining the accessibility and usability of the space.

Ventilation is an important layer of protection against COVID-19 transmission in indoor environments. However, many Canadian buildings lack a mechanical ventilation system that can provide outdoor air and/or air cleaning. Examples of these buildings include schools, long term care homes, and heritage buildings. As a result, there has been an emergence of building technologies and products aimed at mitigating airborne transmission of COVID-19 in buildings lacking a mechanical ventilation system. Unfortunately, many of the technologies and products that have emerged throughout the course of the COVID-19 pandemic lack experimental and field-validation to show they can effectively mitigate airborne transmission of respiratory viruses. In addition, some technologies contain various design flaws that can be detrimental to the health and safety of occupants, making them infeasible solutions. For example, many solutions are too difficult to install/position, too difficult to maintain, too expensive, too energy intensive, not designed optimally in terms of their air intake and exhaust, or result in other unintended negative health consequences (such as the generation of ozone and other contaminants, or produce disruptive levels of noise).
There is a need in the commercial marketplace for alternative building technologies and products that can safely and effectively mitigate airborne transmission of respiratory viruses in buildings lacking a mechanical ventilation system. The proposed solution should be capable of ensuring delivery of clean air to occupied zones both during and after occupancy while maintaining the accessibility and usability of the space.

The objective of this Project is to support the participation of Indigenous groups on the Indigenous Advisory and Monitoring Committee for the Trans Mountain Expansion Project.

The objective of this project is capacity building activities that build knowledge and skills related to renewable energy and grid modernization projects in Canada.

This project advances the Government of Canada commitment to plant an additional two billion new trees over the next 10 years as part of a broader approach to nature-based climate solutions.

This project is to improve energy efficiency in Canada's residential sector.