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David J. Wineland
QUBITWIRE 100 · 2026 SELECTION

David J. Wineland

Trapped-ion physicist; 2012 Nobel laureate

NIST (foundational research)

NIST
Identification checked 2026-09-19
QUBITWIRE 1002026 selectionPermanent record

Recognized for

Collaborative trapped-ion experiments on laser cooling, a controlled quantum logic gate and deterministic entanglement, connecting precision measurement with the methods needed to control individual quantum systems for information processing.

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QubitWire 100, 2026 selection card for David J. Wineland. For collaborative trapped-ion experiments on laser cooling, a controlled quantum logic gate and deterministic entanglement, connecting precision measurement with the methods needed to control individual quantum systems for information processing.

David J. Wineland
Selected for the QubitWire 100, 2026.
For collaborative trapped-ion experiments on laser cooling, a controlled quantum logic gate and deterministic entanglement, connecting precision measurement with the methods needed to control individual quantum systems for information processing.
https://qubitwire.com/people/2026#david-wineland

Free to share with the name, year and contribution intact. The selection mark identifies editorial recognition, not accreditation or endorsement. Text-only cards avoid extending a portrait’s reuse permissions.

Photo: David Wineland 2008crop.jpg — NIST. Public domain (U.S. federal government work). Cropped to fit the display frame.

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WHY INCLUDED

Helped establish trapped-ion quantum computing through laser cooling, a controlled quantum logic gate and deterministic entanglement, connecting precision measurement with experimental quantum information.

Physical Review LettersPhysical Review LettersNIST

Wineland is included for experiments that showed quantum information could be prepared, manipulated and shared in controlled atomic systems. The 1995 gate experiment demonstrated two quantum bits encoded in one trapped atom, while the 1998 work produced entanglement between two ions on demand. These are distinct steps toward scalable processing, not merely demonstrations of unusual quantum behavior. His work also connects computing to the precision-control techniques used in atomic clocks. The contributions are attributed to their experimental teams rather than to Wineland alone.

NISTPhysical Review LettersPhysical Review Letters
VOLUME III · A QUESTION TO FOLLOW

Why do ion experiments also depend on counting light?

An ion experiment needs a dependable way to turn faint optical signals into a measurement record. David J. Wineland is among the authors of a 2017 paper on ultraviolet-sensitive superconducting nanowire detectors for integration with an ion trap. The work connects trapped-ion research with photon detection. [1]

The paper reports detector measurements and explores integration with planar ion-trap structures. It offers a useful historical route into the engineering around an ion. Its publication date remains 17 April 2017; this is newly curated context, rather than newly published research. [1]

NIST’s broader detector explanation helps connect that older work to today’s manufacturing questions. The shared mechanism does not make different devices interchangeable: the 2017 results belong to those devices and cannot be reassigned to a current manufacturer. Nor does this historical paper establish Wineland’s present affiliation. [1][2]

Keep asking: Which detector result belongs to this experiment, and which requirements belong to the wider system?

Sources for this question
  1. UV-sensitive superconducting nanowire single photon detectors for integration in an ion trap — NIST / Optics Express.

    Exact six-author historical record, ultraviolet detector results and ion-trap integration work.

    Paper published 17 April 2017. Checked 2026-10-11.
  2. Superconductive Nanowire Single-Photon Detectors — NIST.

    Photon-detection mechanism and broader context; not a fresh result by Wineland or another manufacturer.

    Institutional technology reference; checked 11 October 2026. Checked 2026-10-11.

The work behind the recognition

Work, in context
  1. 1995

    A controlled quantum logic gate

    Wineland co-authored the NIST experiment with Christopher Monroe, D. M. Meekhof, B. E. King and W. M. Itano. It demonstrated a controlled-NOT gate using internal and motional states of one trapped atom as two quantum bits. The paper identifies decoherence effects and discusses extension to additional qubits.

    Co-author with Christopher Monroe, D. M. Meekhof, B. E. King and W. M. Itano; the gate was a team experiment.

    Source-supported recordPhysical Review Letters
  2. 1998

    Entanglement produced on demand

    Wineland and the NIST team reported deterministic preparation of entangled internal states of two trapped ions. Producing those states without selecting only favorable outcomes established a different capability from the earlier single-atom gate and addressed a requirement for larger quantum computations.

    Co-author of the NIST experimental team’s paper; entanglement preparation was a team result.

    Source-supported recordPhysical Review Letters
  3. 2012

    Recognition for controlling individual quantum systems

    Wineland shared the Nobel Prize in Physics with Serge Haroche for experimental methods that allow individual quantum systems to be measured and manipulated. NIST’s account connects the recognition to laser-cooled ions, quantum-computing operations and precision atomic clocks. The award recognizes experimental methods rather than a completed general-purpose quantum computer.

    Co-recipient of the 2012 Nobel Prize in Physics with Serge Haroche.

    Source-supported recordNIST

Keep in perspective

NIST is identified as the institution of the foundational research, not as a claimed current employment. Current appointment and work base were not established from a directly accessible institutional profile in this review.

FOLLOW THE RECORD

The evidence map

Both views link each contribution to its sources. Choose a contribution on the map or read them all in the list.

David J. Wineland
Contributed to
Supported by

A controlled quantum logic gate

Credit & limits: Co-author with Christopher Monroe, D. M. Meekhof, B. E. King and W. M. Itano; the gate was a team experiment.

Read the full contribution
Contributions and their source records
ContributionEvidence & what it supportsCredit & limits
A controlled quantum logic gate1995
Primary paperDemonstration of a Fundamental Quantum Logic Gate

Authors, date, single trapped atom, internal and motional qubits, controlled-NOT gate and decoherence discussion.

Published 18 Dec 1995 · Checked 19 Sept 2026
Co-author with Christopher Monroe, D. M. Meekhof, B. E. King and W. M. Itano; the gate was a team experiment.
Entanglement produced on demand1998
Primary paperDeterministic Entanglement of Two Trapped Ions

Wineland authorship and on-demand entanglement of two ions without selection.

Published 26 Oct 1998 · Checked 19 Sept 2026
Co-author of the NIST experimental team’s paper; entanglement preparation was a team result.
Recognition for controlling individual quantum systems2012
Institutional recordNIST's David J. Wineland Wins 2012 Nobel Prize in Physics

Identity, 2012 Nobel Prize, trapped-ion research and the relationship between laser cooling, computing and clocks.

Published 9 Oct 2012 · Checked 19 Sept 2026
Co-recipient of the 2012 Nobel Prize in Physics with Serge Haroche.

Follow the evidence

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.