| Dominique Mayers | |
|---|---|
| Name | Dominique Mayers |
| Nationality | French |
| Fields | Quantum physics; quantum information; condensed matter |
| Workplaces | Université Paris-Saclay, École Normale Supérieure, CNRS, CERN, IBM Research |
| Alma mater | Université Pierre-et-Marie-Curie (UPMC), École Polytechnique |
| Known for | Work on quantum decoherence, topological phases, and quantum education |
Dominique Mayers
Dominique Mayers is a French theoretical and experimental physicist notable for contributions to quantum decoherence, topological phases of matter, and the development of quantum curricula. Her work bridges foundational quantum mechanics and applied quantum information science, influencing research at leading European laboratories and industrial research groups.
Dominique Mayers earned her doctorate at Université Pierre-et-Marie-Curie (Paris VI) under supervision linking mathematical methods in condensed matter physics with early quantum information concepts. She completed postdoctoral appointments at the École Normale Supérieure and a joint fellowship with the Centre national de la recherche scientifique (CNRS), where she formalized analytic approaches to open quantum systems. Mayers later held appointments at Université Paris-Saclay and collaborative visiting positions at CERN and IBM Research. Her academic lineage includes collaborations with researchers from Institut des Nanosciences de Paris and links to the European Union's quantum research networks.
Mayers's training combined rigorous mathematical physics—drawing on functional analysis and operator algebras—with hands-on experimental training in low-temperature techniques, enabling interdisciplinary work across theory and experiment. She has supervised doctoral students who later joined institutions such as Max Planck Institute for the Physics of Complex Systems and industrial quantum engineering teams.
Mayers is best known for formalizing models of environment-induced decoherence applicable to mesoscopic conductors and superconducting circuits. She developed extensions to the Caldeira–Leggett framework adapting it to engineered dissipation in quantum computing platforms like superconducting qubits and semiconductor quantum dots. Her theoretical models clarified the role of non-Markovian baths in degrading entanglement and informed error-mitigation strategies used in prototype quantum processors from IBM Quantum and European demonstrators.
In topological condensed matter, Mayers contributed to the characterization of symmetry-protected topological (SPT) phases in low-dimensional systems, applying group cohomology techniques to classify edge modes relevant for fault-tolerant encodings. Her cross-disciplinary work connected concepts from topological order with practicable architectures for topological qubits, influencing experimental programs at CEA and nanofabrication facilities.
Mayers has been active in foundational debates on quantum measurement and realism, publishing rigorous analyses that tied operational formulations to laboratory observables. She participated in multi-author position papers aimed at harmonizing standards for benchmarking quantum advantage claims across the European Quantum Flagship network.
Mayers authored and coauthored articles in high-impact journals and conference proceedings. Notable works include analytical studies of decoherence spectra in superconducting resonators, a widely cited review on engineered dissipation with coauthors from ETH Zurich and University of Oxford, and a monograph chapter on topological phases in the edited volume Emerging Paradigms in Quantum Materials.
Selected theoretical contributions: - A derivation of non-Markovian noise kernels for mesoscopic circuits, cited by groups at Harvard University and MIT pursuing spin qubits. - A classification scheme for one-dimensional SPT phases applied to heterostructures fabricated at the Institut Néel. - A formal proposal for hybrid qubit-resonator error-mitigation routines later implemented in partnership with Quantinuum-affiliated teams.
Her publications frequently appear in journals such as Physical Review Letters, Physical Review B, and Nature Physics, and she has presented invited talks at conferences including the International Conference on Quantum Information and the Varenna Courses on Physics.
Though principally trained as a theorist, Mayers led collaborative experiments coupling theory with fabrication groups. She coordinated efforts between CNRS cleanrooms and cryogenics laboratories to test decoherence suppression protocols on superconducting circuits. These projects were often funded through European research instruments and involved partnerships with industrial research labs such as Thales and Atos Quantum.
Mayers was a scientific partner in multi-institutional projects under the European Quantum Flagship and national initiatives at the Agence nationale de la recherche (ANR). She contributed to roadmap studies for scaling superconducting and semiconductor platforms, working closely with experimental teams at CEA-Leti and Laboratoire Kastler-Brossel.
Her collaborative experimental papers documented benchmarks for coherence times, error rates, and the implementation of dissipation-engineered gates—data that informed design choices for prototype devices at IBM Quantum and spin-qubit groups at University of Cambridge.
Mayers played a prominent role in developing graduate curricula that integrated mathematical foundations with laboratory practice. She helped design core courses on open quantum systems and topological matter at Université Paris-Saclay and advised national summer schools hosted by the Collège de France and Les Houches.
Her institutional influence extended to committee service for doctoral training programs and contributions to European training networks for quantum engineers. Mayers advocated for coordinated national strategies that balance academic excellence with industrial readiness, emphasizing stable institutional frameworks to support long-term technological sovereignty.
She has also authored lecture notes and pedagogical reviews used in international summer schools and contributed to online course materials adopted by partner universities.
Mayers has received recognition from national and international bodies for scientific leadership and mentorship. She served on program committees for major conferences such as the American Physical Society March Meeting and the International Conference on Quantum Technologies. Her professional service includes evaluations for the CNRS and participation in advisory panels for the European Commission on quantum research priorities.
Honors include competitive fellowships and institutional awards for research excellence and thesis supervision. Mayers remains an active reviewer for journals like Reviews of Modern Physics and sits on editorial boards for specialist journals in quantum information and condensed matter physics.
Category:French physicists Category:Quantum physicists