University of Toronto researchers used the CLS to gain insight into solar cell material in hopes to make solar power more efficient and affordable.
MIT Scientists are using CLS to understand how the chemistry of rechargeable batteries shifts and help guide battery design.
A research team from Texas used the CLS to develop a new additive for automotive engine oil that reduces harmful emissions, increases fuel efficiency and improves durability.
University of Toronto's Sam Teale discusses his research on healing defects in perovskites used in solar cells - using the BXDS sector at the CLS synchrotron.
uOttawa team are realizing the limitless possibilities of wearable electronics using CLS synchrotron techniques.
Quantum materials are the basis for many emerging quantum technologies, but the extent to which individual elements are understood depends on scientists’ ability to produce these materials in the lab.
University of Manitoba researchers identified the potential to use polymer composites as electrode matrices in lithium-ion batteries.
University of Saskatchewan scientists have worked at the Canadian Light Source develop deep insight into two types of light emitting crystals for next-generation LEDS.
University of Calgary researchers have made advances towards using the power of the sun to convert biomass like wheat straw into hydrogen fuel and value-added biochemicals.
Canadian researchers work towards harnessing the potential of hydrogen as an energy source for everyday use.
A breakthrough in blue quantum dot technology could make the colours on our TVs and screens more pristine. University of Toronto researchers used the CLS to bring this technology closer to our homes.
Phosphorene is attracting a lot of attention lately in the energy and electronics industries, and for good reason. Western University researchers are using the material to help batteries last longer.
Researchers from the University of Waterloo used the CLS to create an affordable and efficient electrocatalyst that can transform carbon dioxide into valuable chemicals and could help businesses.
McGill University researchers show that affordable materials could prove key for improving the batteries used in electric vehicles.
A collaboration between U of T Engineering and King Abdullah University of Science and Technology has created two-layered solar cells that successfully combine traditional silicon with new perovskite technology.
Scientists used the Canadian Light Source to discover new materials that could help make electronics stretchable.
Certain types of rare earth materials can be manipulated to either conduct or resist electricity, a trait that could make it easier to manufacture electronics or even emulate nerve cells, according to research from an international team of scientists using the CLS.
Improved catalyst transforms renewable electricity and waste CO2 into ethylene, one of the world’s most widely-used commodity chemicals.
Carbon coating that extends lithium ion battery capacity by 50% could pave the way for next-generation batteries in electric vehicles.
Montreal researchers hope to use the CLS to help create bio-based, high-performance fuel cells and metal-air batteries, which could be used in electric cars.
A study conducted at the Canadian Light Source suggests reformulating lubricating oils for internal combustion engines could significantly extend the life of your vehicle.
Researchers, using the CLS, have improved the process of restoring centuries-old daguerreotypes.
To understand how battery pillowing happens, CLS scientist Toby Bond performed highly detailed CT scans on lithium-ion batteries before and after pillowing.
Researchers have developed safe and durable high-temperature Li-S batteries using by a new coating technique called molecular layer deposition (MLD) technology for the first time.
Researchers from the University of Toronto have designed a more efficient catalyst for energy storage by splitting water into hydrogen and oxygen.
An international team of physicists has come one step closer to understanding the mystery of how superconductivity, an exotic state that allows electricity to be conducted with zero resistance, occurs in certain materials.
With applications that are nothing short of science fiction, it is no wonder that graphene-based research continues to fascinate scientists.
About half of Canada’s residential electricity needs could be met if solar panels were installed on the roofs of residential buildings. At a single atom thick, graphene was the first 2D crystal ever discovered. It is a great candidate for solar cells because it is transparent, stronger than steel, and a better conductor than copper. It also can’t corrode. Researchers from the University of Saskatchewan aim to harness these qualities into a more efficient solar cell by modifying the material with oxygen to make a better charge collector. To do this, they take a close look at graphene oxide’s unique electronic signature.