NHNorman Hogan
Norman Hogan
*This is an algorithmically generated author record based on publicly available information.
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Norman Hogan has a total of 16 co-authors. Here are the top co-authors by number of shared publications:
- Alexander F. Kemper
North Carolina State University
1 shared publication - Carlos Mejuto-Zaera
Université de Toulouse, CNRS, Laboratoire de Physique Théorique, Toulouse, France
1 shared publication - Clement Charles
Department of Physics, The University of the West Indies, St. Augustine Campus, Trinidad and Tobago
1 shared publication - Daan Camps
National Energy Research Scientific Computing Center, Lawrence Berkeley National Laboratory, Berkeley, Usa
1 shared publication - Efekan Kökcü
Applied Mathematics and Computational Research Division Lawrence Berkeley National Laboratory 94720 Berkeley CA USA
1 shared publication Elizabeth Hardt
Department of Physics, University of Illinois at Chicago, Chicago, Illinois 60607, USA
1 shared publication
Latest Publications
- Open Access
- 17 August 2026
- Published by Springer Nature in npj Computational Materials
Efficient quantum implementation of dynamical mean field theory for correlated materials
- 17 August 2026
- Published by Springer Nature in npj Computational Materials
Open AccessEfficient quantum implementation of dynamical mean field theory for correlated materials
- Top Cited Papers
- 26 January 2024
- Published by American Physical Society (APS) in Physical Review E
- Vol. 109 (1) , 015307
Simulating lattice gauge theory on a quantum computerThe utility of quantum computers for simulating lattice gauge theories is currently limited by the noisiness of the physical hardware. Various quantum error mitigation strategies exist to reduce the statistical and systematic uncertainties in quantum simulations via improved algorithms and analysis strategies. We perform quantum simulations of gauge theory with matter to study the efficacy and interplay of different error mitigation methods: readout error mitigation, randomized compiling, rescaling, and dynamical decoupling. We compute Minkowski correlation functions in this confining gauge theory and extract the mass of the lightest spin-1 state from fits to their time dependence. Quantum error mitigation extends the range of times over which our correlation function calculations are accurate by a factor of 6 and is therefore essential for obtaining reliable masses.- 26 January 2024
- Published by American Physical Society (APS) in Physical Review E
- Vol. 109 (1) , 015307
Top Cited PapersSimulating lattice gauge theory on a quantum computerThe utility of quantum computers for simulating lattice gauge theories is currently limited by the noisiness of the physical hardware. Various quantum error mitigation strategies exist to reduce the statistical and systematic uncertainties in quantum simulations via improved algorithms and analysis strategies. We perform quantum simulations of gauge theory with matter to study the efficacy and interplay of different error mitigation methods: readout error mitigation, randomized compiling, rescaling, and dynamical decoupling. We compute Minkowski correlation functions in this confining gauge theory and extract the mass of the lightest spin-1 state from fits to their time dependence. Quantum error mitigation extends the range of times over which our correlation function calculations are accurate by a factor of 6 and is therefore essential for obtaining reliable masses.