We’re talking colder than space – and that’s not scalable in the long run, not even in Saskatchewan,” he jokes. The wider adoption of quantum computers is limited at the moment by the fact that their components, in some instances, “must be cooled to about minus 273 degrees Celsius. “And the sheer power of quantum computing brings exciting opportunities.” These technologies include “quantum computing, probably the most disruptive and most anticipated technology coming out of quantum science,” Dr. Such explorations could inspire the design of better conductors, for example, to be used in quantum technologies.”

“What if we used eight-sided, stop-sign-shaped tiles? Octagons don’t tile nicely, and so we have to be creative.

This may inspire questions about how different shapes may result in different behaviours, he says. Steven Rayan, quantum researcher and professor in mathematics and statistics at the University of Saskatchewan, sees mathematics as playing a key role in advancing quantum science. “When we look under the hood, we may discover structures that resemble crystals, such as side-by-side squares or hexagons.”

Thinking in terms of geometry and shapes can reveal to us where these points of bending and breakage are, thereby allowing us to re-engineer from the inside out everyday materials that we take for granted and turn them into ‘quantum materials’ that behave in entirely unexpected ways.”Įxplorations into the fine structure of materials – for example, materials that conduct electricity – often reveal regular patterns, Dr. “When we understand these rules, which are largely mathematical in nature, we can possibly bend and break them. “Quantum science requires a grasp of the rules governing some of the smallest objects in nature, the world of atomic and subatomic particles,” he says. Answers to such questions can be found in quantum mathematics, believes Steven Rayan, quantum researcher and professor in mathematics and statistics at the University of Saskatchewan (USask).

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