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VERSION:2.0
CALSCALE:GREGORIAN
PRODID:UW-Madison-Physics-Events
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SEQUENCE:5
UID:UW-Physics-Event-9434
DTSTART:20260219T213000Z
DTEND:20260219T230000Z
DTSTAMP:20260413T102714Z
LAST-MODIFIED:20260210T170542Z
LOCATION:Discovery Building\, DeLuca Forum
SUMMARY:Towards Quantum Systems Architecture: Bridging QEC Theory and 
 Fault-Tolerant Systems\, Wisconsin Quantum Institute Colloquium\, Swam
 it Tannu\, University of Wisconsin-Madison
DESCRIPTION:<p>Fault-tolerant quantum computing (FTQC) will not be ena
 bled by better qubits alone—it will be enabled by systems. Error cor
 rection turns a quantum computer into a real-time quantum–classical 
 feedback loop\, in which the machine must continuously measure\, decod
 e\, synchronize\, and respond. And scale matters: the overheads of FTQ
 C are so steep that practical machines will increasingly resemble data
 center-scale systems\, where networking\, interfaces\, distributed com
 puting\, and memory organization become first-order design constraints
 .</p>\n<p>In this talk\, I will summarize our research on building th
 e compiler and architecture foundations needed to make FTQC scalable\,
  efficient\, and programmable. I will begin with scaling qubit readout
 —a central bottleneck—and our work on readout pipelines that impro
 ve throughput and enable multi-feature readout\, exposing richer infor
 mation to the control stack. I will then introduce new runtime primiti
 ves\, including synchronization and coordination mechanisms\, that bec
 ome essential when many subsystems must operate in lockstep under tigh
 t timing constraints.</p>\n<p>Finally\, I will highlight a key gap be
 tween quantum error correction (QEC) theory and much of today’s quan
 tum compiler infrastructure—a gap not only in hardware capability\, 
 but also in how we represent\, schedule\, and manage fault-tolerant ex
 ecution. I will describe our steady progress in closing this gap by co
 -designing compilation and runtime abstractions—effectively moving t
 oward an operating system for fault-tolerant quantum machines.</p>\n<
 p>Bio: Swamit Tannu is an Assistant Professor in the Computer Sciences
  department at the University of Wisconsin-Madison\, where he leads th
 e QUEST Research Group. His research focuses on developing architectur
 al and systems abstractions for quantum computers to enable scientific
  discovery at scale. Swamit’s work has been recognized with the NSF 
 CAREER Award and also been inducted into the MICRO Hall of Fame (class
  of 2022).  Swamit earned his Ph.D. from Georgia Tech in Dec 2020 befo
 re joining the University of Wisconsin-Madison in 2021.</p>\n<p>This 
 event starts at 3:30pm with refreshments\, followed at 3:45pm by a sho
 rt presentation by Chaithanya Naik Mude (Tannu group) titled "Enabling
  Fast and Accurate Neutral Atom Readout via Gen-AI based Image Denoisi
 ng". The invited presentation starts at 4pm.</p>\n
URL:https://www.physics.wisc.edu/events/?id=9434
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