Quantum Campus Powwow (I & II)

Jamie Gill, UW-Madison

Abstract: A recent paper by HSBC and IBM (https://arxiv.org/abs/2509.17715) purportedly leveraged quantum noise to deliver increased performance to a financial task.  Are such demonstrations or proposals treats, extracting value from noise?  Or have we been tricked?  Is this paper dead on arrival -- i.e., a qombie (https://scottaaronson.blog/?p=9170)?

Devesh Vedantha, DePaul U

Abstract: To study ultrafast excitation mobility in some polymeric electron donor material, we employ a simple non-atomistic models you can run on your desktop. I will be explaining these models and their applications in solar cells. 

Kowshick (Josh) Srinivasan, Purdue Northwest

Abstract: Detecting cyber threats in smart devices is tricky, especially when dealing with complex data. We introduce a quantum-powered approach called QK-Means that uses quantum tricks to group data more effectively. Tested on real and simulated traffic, our method keeps patterns intact while spotting potential intrusions—showing promise for future quantum-enhanced cybersecurity.  

Rick Yoon, University of Chicago

Abstract: Fracton phases of matter represent an emerging frontier in quantum many-body theory, characterized by excitations that are intrinsically immobile due to fundamental constraints rather than external forces. The restricted dynamics enable the localization and long-term preservation of quantum information, offering a potential platform for robust quantum memory. In this talk, I will introduce the basic principles underlying fracton behavior and discuss how their unique immobility could be harnessed for future quantum technologies.

Caleb Williams, UIC

Abstract: I want to introduce the basics of groups, group homomorphisms, and group actions,  then discuss the basis of the application of this theory to the crystallographic groups and quantum mechanics.