A new report by CMC Research Institutes suggests that Canada can reduce carbon emissions by 2050 while maintaining economic prosperity. The 'deep decarbonization pathway' would require stronger policies, regulations, and technology innovation to compete globally in a low-carbon world.
A Canadian research project is testing the use of low-carbon fuels from construction and demolition waste, railway ties, and asphalt shingles to power cement plants. The goal is to reduce CO2 emissions, with the potential to decrease Canada's carbon footprint by up to 3%.
Researchers developed an ultra-sensitive sensor to detect one molecule of carbon dioxide, improving the accuracy of monitoring and measurement. The sensor technology has the potential to reduce emissions in various industries.
Researchers are developing economic models to reduce the economic costs of implementing carbon dioxide emission-reducing policies, encouraging low-carbon innovation. The project aims to show both positive and negative impacts of policies to encourage low-carbon innovation.
A new, patented sensor-housing technology allows for long-term automated monitoring of greenhouse gases in cold environments, providing energy savings and stability. Developed by Professor David Risk, the technology can detect CO2 levels without halting injections or using secondary wells.
Researchers developing geo-electric technology aim to enhance seismic monitoring of CO2 injection, allowing for better tracking of the gas's movement. The technique has the potential to increase safety and public acceptance of carbon sequestration operations.
Researchers in Quebec develop a process to remove most of the carbon dioxide from emissions through chemical reactions with crushed rocks. The resulting carbonate byproducts can be sold for use as a refractory material or wastewater treatment agent.
Eight new research projects receive funding from Carbon Management Canada to develop technologies for reducing CO2 emissions in industries such as cement and power generation. These projects will focus on innovative solutions for capturing, storing, and utilizing CO2, including sensor technology and carbon mineralization methods.
Researchers have discovered that mine waste rock has significant CO2 sequestration potential, which could be economically valued and used to offset emissions. The technology has the potential to capture five to ten times more CO2 than total greenhouse gas production from some mine operations.
Researchers at the University of Toronto have developed a microfluidic chip process for analyzing bitumen-gas interaction in heavy oil reservoirs. This method reduces analysis time and costs, using small samples and high pressure CO2 injection, and has potential applications for carbon sequestration.
University of Toronto chemists have developed a novel chemical reaction method to recycle carbon dioxide into liquid methanol fuel. The approach utilizes frustrated Lewis pairs and has the potential to be highly efficient and cost-effective, offering a promising solution to greenhouse gas emissions.