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Dorit Aharonov
QUBITWIRE 100 · 2026 SELECTION

Dorit Aharonov

Professor of Computer Science

Hebrew University of Jerusalem

Israel Institute for Advanced Studies, Hebrew University
Israel · work baseIdentification checked 2026-09-19
QUBITWIRE 1002026 selectionPermanent record

Recognized for

Foundational work on when noisy quantum computation can scale and collaborative results connecting adiabatic computation with the circuit model, giving researchers precise frameworks for studying fault tolerance and alternative computational architectures.

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QubitWire 100, 2026 selection card for Dorit Aharonov. For foundational work on when noisy quantum computation can scale and collaborative results connecting adiabatic computation with the circuit model, giving researchers precise frameworks for studying fault tolerance and alternative computational architectures.

Dorit Aharonov
Selected for the QubitWire 100, 2026.
For foundational work on when noisy quantum computation can scale and collaborative results connecting adiabatic computation with the circuit model, giving researchers precise frameworks for studying fault tolerance and alternative computational architectures.
https://qubitwire.com/people/2026#dorit-aharonov

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WHY INCLUDED

Aharonov helped establish when noisy quantum computation can scale and showed that adiabatic evolution can reproduce the power of the standard quantum circuit model.

Israel Institute for Advanced Studies, Hebrew UniversityarXivHebrew University research portal / SIAM Journal on Computing

Two obstacles recur in quantum computing: errors threaten long computations, and different hardware approaches need a common theoretical language. Aharonov has contributed foundational results on both. With Michael Ben-Or, she established a threshold result for computation with a constant local error rate. With collaborators, she proved the polynomial equivalence of adiabatic and circuit-based computation. These are mathematical results with explicit models and assumptions, rather than promises about a particular device. They continue to frame how researchers assess scalable architectures and alternative ways to organize a quantum algorithm.

Israel Institute for Advanced Studies, Hebrew UniversityarXivHebrew University research portal / SIAM Journal on Computing

The work behind the recognition

Work, in context
  1. 2004

    Connecting adiabatic and circuit computation

    Aharonov and coauthors proved that adiabatic quantum computation can efficiently simulate standard quantum computation. The equivalence places a continuously evolving physical model within the same computational framework as quantum circuits, subject to the construction and resource bounds in the paper.

    Coauthored theorem by Dorit Aharonov, Wim van Dam, Julia Kempe, Zeph Landau, Seth Lloyd and Oded Regev.

    Source-supported recordarXiv
  2. 2008

    A threshold for reliable computation

    The full journal paper with Michael Ben-Or establishes fault-tolerant computation below a constant error threshold under its local-noise assumptions, with modest asymptotic overhead. It provides a theoretical reason that increasing computation size need not require error-free elementary operations.

    Joint fault-tolerance theorem by Dorit Aharonov and Michael Ben-Or, within the paper’s noise model.

    Source-supported recordHebrew University research portal / SIAM Journal on Computing

Keep in perspective

The threshold timeline uses the 2008 full journal publication; the work appeared earlier in conference form.

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The evidence map

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

Dorit Aharonov
Contributed to
Supported by

Connecting adiabatic and circuit computation

Credit & limits: Coauthored theorem by Dorit Aharonov, Wim van Dam, Julia Kempe, Zeph Landau, Seth Lloyd and Oded Regev.

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Contributions and their source records
ContributionEvidence & what it supportsCredit & limits
Connecting adiabatic and circuit computation2004
Primary paperAdiabatic Quantum Computation is Equivalent to Standard Quantum Computation

Aharonov coauthorship and polynomial equivalence theorem.

Published 18 May 2004 · Checked 19 Sept 2026
Coauthored theorem by Dorit Aharonov, Wim van Dam, Julia Kempe, Zeph Landau, Seth Lloyd and Oded Regev.
A threshold for reliable computation2008
Primary paperFault-tolerant quantum computation with constant error rate

Aharonov and Ben-Or authorship; threshold and overhead result; final journal year.

Published 2008 · Checked 19 Sept 2026
Joint fault-tolerance theorem by Dorit Aharonov and Michael Ben-Or, within the paper’s noise model.

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.