Quantum Information

Quantum Information at the University of Waterloo is an innovative and interdisciplinary program designed to prepare students for the rapidly advancing field of quantum technologies. This program combines principles of quantum physics, computer science, and engineering to provide a comprehensive understanding of quantum computing, quantum communication, quantum cryptography, and quantum sensing. Students will explore the fundamental theories of quantum mechanics and their applications, gaining practical skills in developing and analyzing quantum algorithms and protocols. The curriculum emphasizes both theoretical foundations and hands-on experience, including laboratory work with cutting-edge quantum hardware and software tools. Through coursework, research projects, and collaborations with industry partners, students will be equipped to contribute to advancements in quantum information processing, secure communications, and next-generation computing devices. The program is tailored to foster innovative thinking, problem-solving capabilities, and interdisciplinary collaboration, preparing graduates for careers in academia, research institutions, and the burgeoning quantum industry. With access to state-of-the-art facilities and expert faculty members who are leaders in the field, students will engage in pioneering research that addresses real-world challenges and pushes the boundaries of our understanding of quantum phenomena. Graduates of the Quantum Information program at Waterloo will emerge as highly skilled professionals capable of driving technological innovation and scientific discovery in one of the most promising and transformative areas of modern science.

• Quantum error correction & fault tolerance
• Quantum complexity
• Quantum algorithms
• Quantum information theory
• Spin-based quantum information processing
• Nanoelectronics-based quantum information processing
• Optical quantum information processing
• Quantum cryptography

Requirements

• Minimum grade point average: 78% or its equivalent.
• It is absolutely essential that the application for admission into the program contain evidence of potential for performing original research. This should be provided by successful completion of a Master’s thesis in a mathematics-related discipline.
• In some circumstances a student enrolled in the MMath program may transfer to the PhD program without completing their MMath program.
• Résumé
• Supplementary information form
• Transcript(s)
• 3 references normally from academic sources
• Internet-Based TOEFL (iBT) 90 overall, IELTS 7.0

Scholarships

• International Master's (IMSA) & International Doctoral Student Awards (IDSA)
• Ontario Graduate Scholarship (OGS)
• Ontario Trillium Scholarship (OTS)
• Trudeau Foundation Scholarships
• Vanier Canada Graduate Scholarship (CGS)

The Quantum Information program at the University of Waterloo offers students an in-depth and interdisciplinary education in the rapidly evolving field of quantum science and technology. Designed for students with a strong foundation in physics, engineering, or computer science, the program combines theoretical coursework with practical laboratory experience to prepare graduates for careers in academia, industry, or research laboratories. Students study fundamental concepts of quantum mechanics, quantum computation, quantum cryptography, and quantum communication, gaining a comprehensive understanding of how information can be manipulated and transmitted using quantum systems. The curriculum emphasizes both the theoretical underpinnings and the experimental techniques essential for developing next-generation quantum technologies.

At Waterloo, students benefit from cutting-edge research facilities and collaborations with industry partners, enabling them to participate in innovative projects and internships. The program often features courses taught by leading experts in quantum information science, integrating topics such as quantum algorithms, quantum error correction, and the physical implementation of quantum bits (qubits). In addition, students have opportunities to conduct research through supervised projects, thesis work, and participation in research groups dedicated to quantum research.

The university’s reputation for excellence in engineering and science ensures a high-quality educational experience, supported by a vibrant community of researchers and students passionate about quantum technologies. Graduates of the program are well-equipped to contribute to advancements in quantum computing, secure quantum communication networks, and other emerging quantum applications. They also gain a solid foundation in the mathematical and computational techniques relevant to quantum information processing. Overall, the program aims to produce highly skilled professionals capable of pioneering innovations in this transformative field.