M.S. In Physics – Quantum Computing Events |
Events During the Week of January 29th through February 5th, 2023
Monday, January 30th, 2023
- No events scheduled
Tuesday, January 31st, 2023
- No events scheduled
Wednesday, February 1st, 2023
- Deadline to drop a course or withdraw from the university without having the course(s) appear on the transcript
- Abstract: *Note: actual end time may vary.* CONTACT: 262-3811, registrar@em.wisc.edu URL:
Thursday, February 2nd, 2023
- CQE Seminar: Ultrafast quantum simulation and quantum computing with ultracold atom arrays
- Time: 11:00 am - 12:00 pm
- Place: This event is open to Chicago Quantum Exchange Members, Partners, and Trainee. To request attendance, contact quantum@uchicago.edu.
- Speaker: Kenji Ohmori, Institute for Molecular Science, National Institutes of Natural Sciences (NINS), Japan
- Abstract: Many-body correlations drive a variety of important quantum phenomena and quantum machines including superconductivity and magnetism in condensed matter as well as quantum computers. Understanding and controlling quantum many-body correlations is thus one of the central goals of modern science and technology. My research group has recently pioneered a novel pathway towards this goal by exciting strongly interacting ultracold Rydberg atoms, far beyond the Rydberg blockade regime, by using an ultrafast laser pulse. We first applied our ultrafast coherent control with attosecond precision to a random ensemble of those Rydberg atoms in an optical dipole trap, and successfully observed and controlled their strongly correlated electron dynamics on a sub-nanosecond timescale. This new approach is now applied to arbitrary atom arrays assembled with optical lattices or optical tweezers that develop into a pathbreaking platform for quantum simulation and quantum computing on an ultrafast timescale.
In this ultrafast quantum computing, very recently, we have succeeded in executing a controlled-Z gate in only 6.5 nanoseconds. This is the fastest record of a controlled gate, a conditional two-qubit gate essential for quantum computing, faster than any other controlled gates with cold-atom hardware by two orders of magnitude. It is also two orders of magnitude faster than the noise from the external environment and operating lasers, whose timescale is in general 1 microsecond or slower, and thus can be safely isolated from the noise. - Host: CQE
Friday, February 3rd, 2023
- Deadline for students to add, swap, or change sections in a Spring term course
- Abstract: *Note: actual end time may vary.* CONTACT: 262-3811, registrar@em.wisc.edu URL:
- Deadline for students to begin initial Spring enrollment
- Abstract: *Note: actual end time may vary.* CONTACT: 262-3811, registrar@em.wisc.edu URL:
- Deadline for students to drop a Spring term course and receive 100% tuition adjustment
- Abstract: *Note: actual end time may vary.* CONTACT: 262-3811, registrar@em.wisc.edu URL: