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QUBITWIRE 100 · 2026 SELECTION

Steven M. Girvin

Sterling Professor of Physics and Professor of Applied Physics

Yale University

Yale University
United States · work baseIdentification checked 2026-09-19
QUBITWIRE 1002026 selectionPermanent record

Recognized for

Collaborative theoretical work establishing circuit quantum electrodynamics and the transmon, connecting superconducting circuits with controllable interactions between quantum states and microwave fields that underpin an important quantum-computing hardware approach.

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QubitWire 100, 2026 selection card for Steven M. Girvin. For collaborative theoretical work establishing circuit quantum electrodynamics and the transmon, connecting superconducting circuits with controllable interactions between quantum states and microwave fields that underpin an important quantum-computing hardware approach.

Steven M. Girvin
Selected for the QubitWire 100, 2026.
For collaborative theoretical work establishing circuit quantum electrodynamics and the transmon, connecting superconducting circuits with controllable interactions between quantum states and microwave fields that underpin an important quantum-computing hardware approach.
https://qubitwire.com/people/2026#steven-m-girvin

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WHY INCLUDED

A theoretical physicist whose collaborative research helped establish circuit quantum electrodynamics and the transmon, linking superconducting circuits with controllable interactions between qubits and microwave fields.

Yale UniversityarXiv / Physical Review AarXiv / Physical Review A

Girvin’s work helps explain how superconducting electrical circuits can function as engineered quantum systems. The circuit-QED architecture he coauthored described how microwave resonators could support interactions, control and measurement. His subsequent participation in the transmon proposal addressed a key source of qubit noise. These ideas connect theoretical descriptions of light–matter interaction with the design choices needed to build and operate circuit-based quantum processors.

Yale UniversityarXiv / Physical Review AarXiv / Physical Review A

The work behind the recognition

Work, in context
  1. 2004

    Circuit quantum electrodynamics

    Girvin coauthored a proposal for cavity quantum electrodynamics using superconducting electrical circuits. It described a quantum-computing architecture that couples circuit qubits to microwave resonators, creating a framework for their interaction and measurement.

    Coauthor of the circuit-QED architecture paper with Blais, Huang, Wallraff and Schoelkopf.

    Source-supported recordarXiv / Physical Review A
  2. 2007

    A qubit less sensitive to charge noise

    Girvin coauthored the transmon proposal with collaborators in superconducting quantum circuits. The design reduced charge-noise sensitivity, supplying a practical theoretical direction for improving superconducting-qubit coherence.

    Coauthor of the collaborative transmon proposal.

    Source-supported recordarXiv / Physical Review A

Keep in perspective

The C2QA founding directorship is historical and is not presented as a current role.

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Steven M. Girvin
Contributed to
Supported by

Circuit quantum electrodynamics

Credit & limits: Coauthor of the circuit-QED architecture paper with Blais, Huang, Wallraff and Schoelkopf.

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Contributions and their source records
ContributionEvidence & what it supportsCredit & limits
Circuit quantum electrodynamics2004
Primary paperCavity quantum electrodynamics for superconducting electrical circuits: An architecture for quantum computation

Girvin coauthorship and circuit-QED architecture.

Published 7 Feb 2004 · Checked 19 Sept 2026
Coauthor of the circuit-QED architecture paper with Blais, Huang, Wallraff and Schoelkopf.
A qubit less sensitive to charge noise2007
Primary paperCharge-insensitive qubit design derived from the Cooper pair box

Girvin coauthorship and transmon design.

Published 1 Mar 2007 · Checked 19 Sept 2026
Coauthor of the collaborative transmon proposal.

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3 sources

Primary papers, institutional records and attributed announcements. Each source supports the claims linked above.

QubitWire editorial · Content edition 2026-09-19.1Independent coverage. Inclusion does not imply endorsement.