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As companies and organizations line up to make renewable energy pledges, ����ɫ�� researchers are putting themselves in a position to lead the way in providing those groups with the resources they need to turn their green dreams into realities.

Led by Dr. Viola Birss, PhD, , and Dr. Edward Roberts, PhD, , nearly 70 current graduate students and postdoctoral researchers are developing energy conversion and storage technologies to deliver a low-carbon energy future.

The Materials for Electrochemical Energy Solutions Program is one of the ����ɫ��-led Natural Sciences and Engineering Research Council of Canada’s (NSERC) CREATE initiatives. The aims to find durable materials for electrolysers, fuel cells, and batteries.

“To enable widespread use of these technologies, they need to be cheaper, safer, and have a longer life,” Roberts said. “This project will contribute to all of those goals.”

Search for the right materials

The team is looking at a number of variables as it develops technologies.

Not only are researchers looking at large-scale and distributed storage options for the power grid, they would also like to secure and grow sustainable power for remote communities with infrastructure like solar panels with battery storage, as well as batteries and fuel cells for vehicles.

“Our new electrolysis cells can operate on renewable energy while converting the greenhouse gas CO₂ and/or water to chemicals and fuels, including syngas and green H₂,” Birss said. “There is currently tremendous interest in H₂ in Alberta and Canada, especially for fuel-cell-powered vehicles, such as trucks, to take advantage of the high efficiencies, zero carbon emissions and only few minutes of recharging time required.”

Among the challenges facing these technologies is the climate, which is something Roberts admits the team is taking into consideration knowing some of the criticism at home has been levied against the uncertain dependability of the technology when Old Man Winter arrives.

“One of the advantages of the solid-state batteries that we are working on is that they can still function and are less likely to be damaged by cold temperatures, although they can still be affected,” he said. “For grid applications, this may also be an issue, although typically the batteries will be located inside a temperature-controlled housing.”

Finding the right partners

The project is one of for infrastructure investments.

In this case, researchers received $2.99-million to purchase two powerful instruments, including a state-of-the-art transmission electron microscrope and an X-ray photoelectron spectrometer.

“The instruments will allow us to study changes in the structural and chemical properties of the materials during device operation, and to understand degradation mechanisms, which is essential to developing high-performance, durable materials,” Roberts said.

Birss and Roberts add the instruments give them a magnification to less than a nanometre, which is about 100,000 times smaller than the tip of a human hair. The devices will be available to everyone involved in the project.

“This will help us accelerate the research towards new solutions, and provide graduate students and researchers with new skills and expertise,” Roberts said. “Our CREATE ME² program is also targeting training students in entrepreneurship and technology transfer, and we are already seeing student start-ups that are taking the technologies we are developing towards commercialization.”