Harnessing quantum phenomena
Research in quantum information focuses on harnessing quantum mechanics to process information in fundamentally new ways. It involves studying quantum bits (qubits), superposition, and entanglement to develop quantum algorithms, communication systems, and secure cryptography.
Chemists and physicists collaborate to design quantum materials and simulate molecular systems with unprecedented accuracy. This research has implications for drug discovery, materials science, and optimization problems. By leveraging quantum phenomena, the field aims to solve problems that are currently intractable for classical computers, advancing both fundamental science and technological innovation.
World-class research
Work with leaders in the field and conduct research in our state-of-the-art facilities. What could you do at Waterloo?
The Institute for Quantum Computing (IQC) was founded in 2002 to position Canada as a leader in quantum research, and today it’s one of the top quantum information research institutes in the world. Experts in all fields of quantum information science and technology come to IQC to conduct research, share knowledge, and encourage and support the next generation of scientists, mathematicians, and engineers.
Building bridges at the nanoscale
Dr. Adam Wei Tsen, Associate Professor in Chemistry and faculty at the Institute for Quantum Computing, has been named an Endowed Chair in Nanotechnology, recognizing his internationally prominent research in nanotechnology.
Meet our researchers
Jonathan Baugh
Dr. Jonathan Baugh is working toward the physical realization of solid-state quantum information processors, using the property of spin to encode and manipulate quantum information. His work has focused on solid-state nuclear magnetic resonance and electron spin resonance, and more recently on quantum transport and development of qubits in semiconductor nanostructures.
David Cory
Dr. David Cory and his research team explore the experimental challenges of building small quantum processors. This is a diverse work place with researchers from engineering, science, and math working together. Our quantum processors are based on nuclear spins, electron spins, neutrons, persistent current superconducting devices and optics. Most experiments involve the use of hybrid systems composed of several types of quantum bits in an effort to push overall performance. A common theme in our studies is to engineer efficient, high fidelity, coherent control of open quantum systems.
Adam Wei Tsen
Dr. Wei Tsen's research focuses on the study of low-dimensional materials that exhibit exotic quantum phenomena, and their integration into novel electronic devices.
Want to partner with us?
Collaboration is where research thrives. If you’re an industry leader interested in partnership, we want to hear from you.