2023: A year in review leading quantum strategy in Canada and beyond
As we look forward to 2024, we reflect with gratitude on the achievements that were made at the Institute for Quantum Computing (IQC) in 2023.
As we look forward to 2024, we reflect with gratitude on the achievements that were made at the Institute for Quantum Computing (IQC) in 2023.
À l’approche de 2024, l’Institut d’informatique quantique (IQC) souhaite prendre un moment pour porter un regard reconnaissant sur tout ce qu’il a accompli en 2023.
Dr. Melissa Henderson is a researcher at the Institute for Quantum Computing (IQC) and the University of Waterloo’s Department of Physics and Astronomy. Her research considers the scattering of neutral particles known as neutrons, and their relation to quantum materials.
The Institute for Quantum Computing (IQC) and the Department of Physics and Astronomy in the Faculty of Science at the University of Waterloo would like to congratulate Dr. Thomas Jennewein on his appointment to the Canada Excellence Research Chair (CERC) Program, which he will hold at Simon Fraser University (SFU) in British Columbia.
Last week, the Institute for Quantum Computing (IQC) welcomed over 20 promising postdoctoral fellows from around the world to Waterloo as part of the ninth annual Quantum Innovators workshop.
Split into two streams focused on theoretical and experimental research, speakers covered topics ranging from fault-tolerance and quantum cryptography to quantum defects in diamonds and atomic arrays, and many more topics spanning cutting edge quantum information research.
Recently, Shayan Majidy was lead author of the perspective article Noncommuting conserved charges in quantum thermodynamics and beyond in Nature Review Physics, which surveys results across a subfield Majidy works in, including three of his recent papers, and discusses the future opportunities in this field of research. In this edition of ‘Quantum Q&A’, we’ve asked him to tell us more about this new article.
Many experiments in quantum information processing rely on our ability to transmit, manipulate, or detect photons. In these applications, the wavelength of photons being detected can range from the infrared and visible light used in optical communication systems, to the microwave photons that superconducting quantum devices respond to. While a wide range of detectors are available for optical photons, detecting microwave photons is significantly more challenging due to the much lower energies of individual photons compared to the level of noise, including background light, in the world around us.
Waterloo professor Michele Mosca shares best practices for using quantum to safeguard important data.
Today, we’re celebrating some of the female-identifying engineers in our community by showcasing their remarkable achievements, experiences, and valuable guidance for those aspiring to help build a brighter future.
The inaugural networking conference brought together over 150 quantum professionals from government, industry and academic sectors to foster collaborations and create connections over two days. Quantum Connections attendees critically examined the challenges we face as a country within the landscape of quantum and had proactive conversations considering Canada’s quantum future.