webinar
From Circuit QED to Quantum Error Correction
A live conversation with Steven Girvin
Register now
11:00 AM ET | 5:00 PM CET
Thursday, November 4th, 2025
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Special Guest:
Steven Girvin
Yale University

Moderator:
Daniel Rodan Legrain
Qblox
Join Steven M. Girvin, Sterling Professor of Physics at Yale University, co-developer of the revolutionary Circuit Quantum Electrodynamics (Circuit QED) architecture, and founding director of DOE’s Co-Design Center for Quantum Advantage, for a candid discussion on the foundations and future of superconducting quantum computing.
From the original theoretical breakthroughs to the cutting-edge work on error correction, this is an opportunity to hear directly from one of the field's most influential pioneers about the path to fault-tolerant, scalable quantum systems.
From the original theoretical breakthroughs to the cutting-edge work on error correction, this is an opportunity to hear directly from one of the field's most influential pioneers about the path to fault-tolerant, scalable quantum systems.
This webinar will focus on:
- The Blueprint of Modern Qubit Systems: Uncover the story behind the origins of Circuit QED and how it successfully translated ideas from quantum optics into the superconducting microwave circuits that power today's leading quantum computers.
- Reflections on a Nobel Era: Hear Professor Girvin's personal reflections on the partnership with Michel Devoret, the recent 2025 Nobel Prize in Physics, and the theory-experiment collaboration that defined a generation of quantum research.
- The Path to Scaling: Gain insight into the current bottlenecks and the most promising avenues for breakthroughs in scaling up superconducting quantum platforms to commercial size.
- Fault Tolerance Closer to Reality: Explore the crucial work at Yale University that is advancing Quantum Error Correction, bringing the goal of reliable, fault-tolerant quantum computation closer to fruition.
Register now !
Join us for a live conversation as we dig into what it really takes to drive the future of quantum computing.
