lulissat Icefjord in western Greenland, a field site for research led by Prof. Natalya Gomez, Earth and Planetary Sciences. Image by Natalya Gomez.
An unprecedented surge in research findings globally has reshaped our understanding of the Universe and life on Earth.
ºÚÁÏÍø±¬³Ô¹Ï’s foundational research in the physical, mathematical, biological, and chemical sciences stands out for its depth, diversity, and international reputation. It informs far-reaching applications related to energy, health, materials, information systems, Earth systems, and space exploration. This work has long driven transformative change, laying the groundwork for technologies, systems, and paradigms that continue to influence the modern world.
Our current research in astrophysics and cosmology explores the structure and origins of the Universe, generating insight into how it operates and evolves.
ºÚÁÏÍø±¬³Ô¹Ï experts in matter and energy, and in the mathematical and computational systems that describe them, are participating in major international collaborations to detect fast radio bursts, investigate dark matter and neutrinos, and study the Higgs boson. Advances in digital instrumentation, detector systems, and computational methods are enabling the collection and processing of massive data sets at every scale, from subatomic particles to planetary systems.
Physics student Maclean Rouble works on quantum detectors for a new cryogenic electronics system built at ºÚÁÏÍø±¬³Ô¹Ï and deployed on the South Pole Telescope in Antarctica. Image by Alex Tran.
CHORD project Manager Dr. Dallas Wulf (center) oversees the commissioning of the first telescope dishes for CHORD, the most ambitious telescope ever built on Canadian soil that will unlock unprecedented views of radio transients and the structure of the cosmos. Image by Ian Hendricksen.
Cutting-edge research in cell-biology, ecology and evolution explores the molecular and cellular underpinnings of life and how organisms interact with their environments and adapt to human pressures such as pollution. Using genomics, modelling, and fieldwork, researchers are investigating species’ range limits, biodiversity, and eco-evolutionary dynamics. Their work informs conservation, resource management, and solutions to urgent challenges such as antibiotic resistance and pesticide tolerance. It reveals how evolution reshapes ecosystems and the services they provide to humanity.
In fundamental chemistry, researchers at ºÚÁÏÍø±¬³Ô¹Ï are conducting pioneering research in synthesis, catalysis, chemical physics, molecular materials, polymers, and nanostructures. We lead internationally in
studies at the interface of chemistry and biology, enzyme mechanisms, and nucleic acid chemistry, which is the basis for drug design.
Our work in quantum science aims to understand, control, and harness the fundamental principles of quantum physics—such as superposition and entanglement—to enable technologies that surpass the capabilities of classical systems. By actively engineering quantum states and systems, quantum science can boost our ability to process information, detect weak signals, and model complex phenomena. This rapidly evolving field underpins a range of transformative applications, including quantum computing, simulation, sensing, materials, and communication.