Seminar Series

Rongchao Jin, CMU, “Quantum-Sized Metal Nanoclusters”

So Hirata, UIUC, “Numerical Evidence Invalidating Textbook Finite-Temperature Perturbation Theory”

The format is a plenary talk from our invited speaker (40 min, including questions) accompanied with a shorter talk (20 min, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

The link to the YouTube livestream will be updated here shortly.

Linda Peteanu, CMU, “TBD” 

Chris Van de Walle, UCSB, “Modeling Point Defects for Quantum Information Science”

The format is a plenary talk from our invited speaker (40 min, including questions) accompanied with a shorter talk (20 min, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

The link to the YouTube livestream will be updated here shortly.

Andrew Daley, University of Strathclyde, “Reaching practical quantum advantage in quantum simulation” 

Daniel Stamper-Kurn, UC Berkeley, “TBD”

Tom Purdy, UPitt, “TBD”

The format is a plenary talk from our invited speaker (40 min, including questions), sandwiched between two shorter talks (20 min each, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

The link to the YouTube livestream will be updated here shortly.

Jimmy Zhu, CMU, “Field Free Spin Hall Switching of Perpendicular MTJs”

Xiaodong Xu, University of Washington, “2D Magnets and Heterostructures”

Nathan Youngblood, UPitt, “Highly parallel in-memory computing with phase-change photonics”

The format is a plenary talk from our invited speaker (40 min, including questions), sandwiched between two shorter talks (20 min each, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

The link to the YouTube livestream will be updated here shortly.

Yang Wang, Pittsburgh Supercomputing Center, “Ab initio electronic structure calculation at the dawn of exascale computing”
Shiwei Zhang, Flatiron Institute and College of William & Mary, “Towards the solution of the many-electron problem: ground-state properties of the hydrogen chain from ab initio computation"”

The format is a plenary talk from our outside speaker (40 min, including questions) following a talk (20 min, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

...

Olexandr Isayev, CMU, “Supercharging quantum mechanics with artificial intelligence (AI)”

Heather Kulik, MIT, “Molecular design blueprints: new simulation and machine learning tools for inorganic discovery”

Peng Liu, Pitt, “Using Energy Decomposition Analysis to Guide Rational Catalyst Design”

The format is a plenary talk from our outside speaker (40 min, including questions), sandwiched between two shorter talks (20 min each, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

...

Sridhar Tayur, CMU, “Quantum Integer Programming (QuIP)”
Fred Chong, University of Chicago, “Closing the Gap between Quantum Algorithms and Machines with Hardware-Software Co-Design”
Ryan O’Donnell, CMU, “Quantum Learning for Quantum Data”

The format is a plenary talk from our outside speaker (40 min, including questions), sandwiched between two shorter talks (20 min each, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

...

Jeremy Levy, UPitt, “Correlated Nanoelectronics: The Next Dimension”
Amir Yacoby, Harvard University, “Quantum Sensing Of Quantum Materials”
Sara Majetich, CMU, “TBD” 

The format is a plenary talk from our outside speaker (40 min, including questions), sandwiched between two shorter talks (20 min each, including questions) from our PQI membership. This is a format that is modeled after the previous PQI20XX events. 

Watch here and submit...

The study of strongly correlated electronic systems and the development of quantum transport in nanoelectronic devices have followed distinct, mostly non-overlapping paths.  Electronic correlations of complex materials lead to emergent properties such as superconductivity, magnetism, and Mott insulator phases. Nanoelectronics generally starts with far simpler materials (e.g., carbon-based or semiconductors) and derives functionality from doping and spatial confinement to two or fewer spatial dimensions.  In the last decade,...