Skip to content
Simons Foundation
Simons Foundation
Flatiron Institute
Computational Quantum Physics
Search
  • Theory and Methods Developing the methods and algorithms to make the quantum many-body problem tractable.

    Quantum Materials Combining chemical realism with many-electron physics to develop predictive theories of many-electron properties.

    Quantum Dynamics and Control Using the quantum nature of light to understand and control quantum phenomena in complex systems.

    Software Developing, optimizing and supporting codes that implement key algorithms for many-body quantum systems.

  • Learn more about our mission, goals, and ecosystem.

    About Us

    Community

    • People
    • News
    • Events

    Connect

    • Contact
    • Media Relations
    • Visitor Information
  • Publications
  • Jobs
  • Careers
    Search all
  • Funding
    Search all
  • Explore opportunities for...
    • Undergraduate students
    • Graduate students
    • Postdoctoral researchers
    • Research scientists
Simons Foundation
Flatiron Institute

Computational Quantum Physics

  • Research Projects

    Theory and Methods Developing the methods and algorithms to make the quantum many-body problem tractable.

    Quantum Materials Combining chemical realism with many-electron physics to develop predictive theories of many-electron properties.

    Quantum Dynamics and Control Using the quantum nature of light to understand and control quantum phenomena in complex systems.

    Software Developing, optimizing and supporting codes that implement key algorithms for many-body quantum systems.

  • About

    Learn more about our mission, goals, and ecosystem.

    About Us

    Community

    • People
    • News
    • Events

    Connect

    • Contact
    • Media Relations
    • Visitor Information
  • Publications
  • Jobs

Filters

Publication Year

Show 7 more Show less

Tag

Show 6 more Show less
Simons Foundation
  • Find a Person

Bringing people and ideas together to fund, conduct, and share transformative science.

Our grants advance knowledge and strengthen connections between science and society.

Discover the latest news, research, and updates.

  • All News
  • Research News
  • Funding Announcements
  • Newsletter Sign Up
  • Press Releases
  • Media Relations

We convene scientists, mathematicians, and thinkers to share ideas and explore new questions.

  • Events Calendar
  • Public Events
  • Presidential Lectures
  • Presents
  • Flatiron Events
  • Past Events

Founded by Jim and Marilyn Simons, we’re a private philanthropy advancing mathematics and basic science.

Work with us on the frontier of basic science research.

  • All Open Positions
  • Undergraduate Students
  • Graduate Students
  • Postdocs
  • Research Scientists

The Flatiron Institute is a research center that uses computational science to advance fields like physics, biology, and astronomy.

  • Explore Flatiron Institute
  • People
  • Careers
  • Publications
  • Software & Data
  • Computational Astrophysics
  • Computational Biology
  • Computational Mathematics
  • Computational Neuroscience
  • Computational Quantum Physics
  • Computational Catalysis
Flatiron Institute
  • Autism
  • Neuroscience
  • Mathematics
  • Ecology & Evolution
  • Plant Biology
  • Grantmaking
  • Media Initiatives
  • Public Events
  • Researcher Engagement
  • National Initiatives
  • Computational Software
  • Computational Datasets
  • SFARI Base
  • Publications
  • Simons Collaboration on Localization of Waves
  • Simons Collaboration on Plasticity and the Aging Brain
  • Simons Collaboration on Principles of Microbial Ecosystems
All Collaborations
  • Policies & Procedures
  • Instructional Videos
  • Past Funded Work
  • Undergraduate Students
  • Graduate Students
  • Postdocs
  • Research Scientists
All Funding Opportunities
  • Fellows-to-Faculty
  • New Ideas
  • SFARI Conferences & Courses Awards
  • Shenoy Undergraduate Research Fellowship in Neuroscience
Autism & Neuroscience
  • Simons Graduate Fellowships in Ecology & Evolution
  • Simons Postdoctoral Fellowships in Plant Biology
  • Synthetic Plant Biology
  • Simons Collaborations in Ecology & Evolution
Life Sciences
  • Science in Culture
  • Science in Community
  • STEM Pathways
Science, Society & Culture
  • Scientific Software Research Faculty Award
  • Simons Collaborations in MPS
  • Simons Dissertation Fellowship in Mathematics
  • Simons Fellows in Mathematics
  • Targeted Grants to Institutes
  • Targeted Grants in Mathematics & Physical Sciences
  • Travel Support for Mathematicians
Mathematics & Physical Sciences
  • Pivot Fellowship
  • Simons Society of Fellows
  • Our History
  • Annual Reports
  • Visitor Information
  • Media Relations
  • Contact Us
About Us
  • Leadership
  • Board of Trustees
  • Research Staff
Search All People
  • Working Here
  • Internship Opportunities
  • Undergraduate Students
  • Graduate Students
  • Postdoctoral Students
  • Research Scientists
All Open Positions

Centers

  • Computational Astrophysics
  • Computational Biology
  • Computational Mathematics
  • Computational Neuroscience
  • Computational Quantum Physics
  • Scientific Computing Core
  • Initiative for Computational Catalysis

Collaborative Projects

  • Foundation Models of Science
  • Simons Observatory
Flatiron Institute

Search

What are you looking for?

Filter Results
A circular pattern of evenly spaced, white radial lines on a light gray background, creating a sunburst or spinning wheel effect with an empty center.
Flatiron Institute Computational Quantum Physics

Computational Quantum Physics: Publications

Read the latest papers published by our researchers.

Results update as you type and when you change filters.

Skip to results

Filters

Publication Year

Show 7 more Show less

Tag

Show 6 more Show less

Results

  1. Universal slow plasmons and giant field enhancement in atomically thin quasi-two-dimensional metals

    arxiv:, 2020

    Felipe H. Jornada, Lede Xian, A. Rubio, and Steven G. Louie

  2. Superconducting optical response of photodoped Mott insulators

    arxiv.org:2001.00184, 2020

    J. Li, D. Golez, P. Werner, and M. Eckstein

  3. Not all doped Mott insulators have a pseudogap: key role of van Hove singularities

    arXiv:2001.00019, December 31, 2019

    Wei Wu, Mathias S. Scheurer, M. Ferrero, and A. Georges

  4. Partial lattice defects in higher order topological insulators

    Physical Review Letters, arXiv:1809.03518, December 27, 2019

    Raquel Queiroz, Ion Cosma Fulga, Nurit Avraham, Haim Beidenkopf, and J. Cano

  5. How to measure the entropy of a mesoscopic system via thermoelectric transport

    Nature Communications, arXiv:1904.08948, December 20, 2019

    Yaakov Kleeorin, Holger Thierschmann, Hartmut Buhmann, A. Georges, Laurens W. Molenkamp, and Yigal Meir

  6. Visualization of moiré superlattices

    arXiv:1912.06629, December 16, 2019

    Leo McGilly, Alexander Kerelsky, Nathan Finney, Konstantin Shapovalov, En-Min Shih, Augusto Ghiotto, et al.

  7. Multi-messenger nano-probes of hidden magnetism in a strained manganite

    Nature Materials, arXiv:1910.10361, 2019

    A. S. McLeod, J. Zhang, M. Q. Gu, F. Jin, G. Zhang, K. W. Post, et al.

  8. Superconducting order parameter of the nodal-line semimetal NaAlSi

    APL Materials, arXiv:1909.06875, December 10, 2019

    L. Muechler, Zurab Guguchia, Jean-Christophe Orain, Juergen Nuss, Leslie M. Schoop, Ronny Thomale, et al.

  9. Integrating Neural Networks with a Quantum Simulator for State Reconstruction

    Physical Review Letters, arXiv:1904.08441, December 6, 2019

    G. Torlai, Brian Timar, Evert P.L. van Nieuwenburg, Harry Levine, Ahmed Omran, Alexander Keesling, et al.

  10. Giant polarization charge density at lattice-matched GaN/ScN interfaces

    Applied Physics Letters, arXiv:1910.00142, December 4, 2019

    Nicholas L. Adamski, C. Dreyer, and Chris G. Van de Walle

  11. The Nature of Lithium Bonding in C2H2Li2, C6Li6, and Lithium Halide Dimers

    Organometallics, December 3, 2019

    Yameng Liu, Bin Peng, X. Wang, Yaoming Xie, and Henry F. Schaefer III

  12. Many-body chaos in the antiferromagnetic quantum critical metal

    Physical Review B, arXiv:1907.12749, December 2, 2019

    P. Lunts and Aavishkar Patel

  13. Cavity control of nonlinear phononics

    arXiv:1912.00122, November 30, 2019

    D. M. Juraschek, T. Neuman, J. Flick, and P. Narang

  14. The learnability scaling of quantum states: restricted Boltzmann machines

    Physical Review B, arXiv:1908.07532, November 15, 2019

    Dan Sehayek, Anna Golubeva, Michael Albergo, Bohdan Kulchytskyy, G. Torlai, and Roger G. Melko

  15. Multiband nonequilibrium GW+EDMFT formalism for correlated insulators

    Phys. Rev. B, arxiv.org:1903.08713, 2019

    D. Golez, M. Eckstein, and P. Werner

  16. Deep learning the Hohenberg-Kohn maps of Density Functional Theory

    arXiv:1911.03580, November 8, 2019

    Javier Robledo Moreno, G. Carleo, and A. Georges

  17. Metal-Insulator and Magnetic Phase Diagram of Ca2RuO4 from Auxiliary Field Quantum Monte Carlo and Dynamical Mean Field Theory

    arXiv:1911.02702, November 7, 2019

    Hongxia Hao, A. Georges, A. Millis, Brenda Rubenstein, Qiang Han, and H. Shi

  18. Deep‐Level Defects and Impurities in InGaN Alloys

    Physica Status Solidi B, November 6, 2019

    Darshana Wickramaratne, C. Dreyer, Jimmy-Xuan Shen, John L. Lyons, Audrius Alkauskas, and Chris G. Van de Walle

  19. Ground-state properties of the hydrogen chain: insulator-to-metal transition, dimerization, and magnetic phases

    arxiv:1911.01618, 2019

    M. Motta, Claudio Genovese, Fengjie Ma, Zhi-Hao Cui, Randy Sawaya, G. Chan, et al.

  20. NESSi: The Non-Equilibrium Systems Simulation package

    arxiv.org:1911.01211, 2019

    M. Schuler, D. Golez, Y. Murakami, N. Bittner, A. Hermann, H. Strand, et al.

  21. Multifold nodal points in magnetic materials

    APL Materials, arXiv:1904.12867, October 28, 2019

    J. Cano, Barry Bradlyn, and M. G. Vergniory

  22. Magic continuum in twisted bilayer WSe2

    arXiv:1910.12147, 2019

    L. Wang, E.-M. Shih, A. Ghiotto, L. Xian, D. A. Rhodes, C. Tan, et al.

  23. Charge Stiffness and Long-Ranged Correlation in the Optically Induced η Pairing State of the One-Dimensional Hubbard Model

    arXiv:1910.11229v2, October 24, 2019

    Tatsuya Kaneko, Seiji Yunoki, and A. Millis

  24. Hybrid Purification and Sampling Approach for Thermal Quantum Systems

    Phys. Rev. B, arxiv:1910.09142, October 21, 2019

    J. Chen and M. Stoudenmire

  25. Charge Density Waves in a Quantum Plasma

    Physical Review B, arXiv:1910.07152, October 16, 2019

    Zhaoyu Han, S. Zhang, and Xi Dai

  26. Force Balance Approach for Advanced Approximations in Density Functional Theories

    Journal of Chemical Physics, arXiv:1908.02733, October 16, 2019

    Mary-Leena M. Tchenkoue, Markus Penz, Iris Theophilou, Michael Ruggenthaler, and A. Rubio

  27. Entropy-cooled nonequilibrium states of the Hubbard model

    PHYSICAL REVIEW B, arxiv.org:1908.08515, October 16, 2019

    P. Werner, J. Li, D. Golez, and M. Eckstein

  28. Modeling Sequences with Quantum States: A Look Under the Hood

    Machine Learning: Science and Technology, arxiv:1910.07425, 2019

    Tai-Danae Bradley, M. Stoudenmire, and John Terilla

  29. Length-scales of interfacial coupling between metal-insulator phases in oxides

    arXiv:1910.06887, October 15, 2019

    Claribel Domínguez, A. Georgescu, Bernat Mundet, Yajun Zhang, Jennifer Fowlie, Alain Mercy, et al.

  30. Photo-enhanced excitonic correlations in a Mott insulator with nonlocal interactions

    arxiv.org:1910.07063, 2019

    N. Bittner, D. Golez, M. Eckstein, and P. Werner

  31. A unification of the Holstein polaron and dynamic disorder pictures of charge transport in organic semiconductors

    arXiv:1910.04644, October 10, 2019

    J. H. Fetherolf, D. Golez, and T. Berkelbach

  32. Optimal control theory for quantum electrodynamics: an initial state problem

    The European Physical Journal B, arXiv:1808.02678, October 2, 2019

    Alberto Castro, Heiko Appel, and A. Rubio

  33. Light–Matter Response in Nonrelativistic Quantum Electrodynamics

    ACS Photonics, arXiv:1803.02519, October 2, 2019

    Johannes Flick, Davis M. Welakuh, Michael Ruggenthaler, Heiko Appel, and A. Rubio

  34. Photo-enhanced metastable c-axis electrodynamics in stripe ordered cuprate La_1.885Ba_0.115CuO_4

    PNAS, arXiv:1901.10037, October 1, 2019

    Kevin A. Cremin, Jingdi Zhang, Christopher C. Homes, Genda D. Gu, Zhiyuan Sun, Michael M. Fogler, et al.

  35. Optical Properties of Layered Hybrid Organic-Inorganic Halide Perovskites: A Tight-Binding GW-BSE Study

    Journal of Physical Chemistry: Letters, arXiv:1908.09436, September 27, 2019

    Y. Cho and T. Berkelbach

  36. Fermionic neural-network states for ab-initio electronic structure

    arXiv:1909.12852, September 27, 2019

    Kenny Choo, Antonio Mezzacapo, and G. Carleo

  37. Coupled-cluster impurity solvers for dynamical mean-field theory

    Physical Review B, arXiv:1905.12050, September 26, 2019

    T. Zhu, C. Jimenez-Hoyos, J. McClain, T. Berkelbach, and G. Chan

  38. Large Band Edge Tunability in Colloidal Nanoplatelets

    Nano Letters, September 23, 2019

    Q. Zhou, Y. Cho, S. Yang, E. Weiss, T. Berkelbach, and P. Darancet

  39. The antiferromagnetic phase of the Floquet-driven Hubbard model

    Physical Review B, arXiv:1809.08607, September 20, 2019

    Nicklas Walldorf, Dante M. Kennes, Jens Paaske, and A. Millis

  40. Blockade of vortex flow by thermal fluctuations in atomically thin clean-limit superconductors

    arXiv:1909.08469, September 18, 2019

    Avishai Benyamini, Dante M. Kennes, Evan Telford, Kenji Watanabe, Takashi Taniguchi, A. Millis, et al.

  41. Auxiliary-Field Quantum Monte Carlo at Zero- and Finite-Temperature

    Many-Body Methods for Real Materials Modeling and Simulation, September 16, 2019

    S. Zhang

  42. Many-Body Methods for Real Materials Modeling and Simulation

    Forschungszentrum Jülich GmbH Zentralbibliothek, Verlag, September 16, 2019

    Pavarini, E., Koch, E., and S. Zhang

  43. Study of the Two-Dimensional Frustrated J1-J2 Model with Neural Network Quantum States

    Physical Review B, arXiv:1903.06713, 2019

    Kenny Choo, Titus Neupert, and G. Carleo

  44. Strong Orbital Polarization in a Cobaltate-Titanate Oxide Heterostructure

    Physical Review Letters, September 10, 2019

    S. Lee, A. T. Lee, A. Georgescu, G. Fabbris, M. G. Han, Y. Zhu, et al.

  45. Magnetic response of Sr2RuO4: quasi-local spin fluctuations due to Hund's coupling

    Phys. Rev. B, arXiv:1904.07324, September 10, 2019

    H. Strand, M. Zingl, N. Wentzell, O. Parcollet, and A. Georges

  46. Combined spontaneous symmetry-breaking and symmetry-protected topological order from cluster charge interaction

    arXiv:1909.03025, September 8, 2019

    C. Peng, R. Q. He, Y. He, and Z. Y. Lu

  47. Reduced Density-Matrix Approach to Strong Matter-Photon Interaction

    ACS Photonics, arXiv:1812.05562, September 5, 2019

    Florian Buchholz, Iris Theophilou, Soeren Ersbak Bang Nielsen, Michael Ruggenthaler, and A. Rubio

  48. Light-induced anomalous Hall effect in massless Dirac fermion systems and topological insulators with dissipation

    New Journal of Physics, arXiv:1905.12981, September 4, 2019

    S. A. Sato, P. Tang, M. A. Sentef, U. De Giovannini, H. Hübener, and A. Rubio

  • Prev
  • 1
  • …
  • 17
  • 18
  • 19
  • 20
  • 21
  • 22
  • Page 19 of 22
  • Next

About

  • About Us
  • History
  • Annual Reports
  • People
  • Visitor Information
  • Careers

Funding

  • Funding Opportunities
  • Funded Work
  • Simons Award Manager
  • Simons Foundation International
  • Policies & Procedures

Program Areas

  • Life Sciences
  • Autism & Neuroscience
  • Mathematics & Physical Sciences
  • Science, Society & Culture

Connect

  • Newsletters
  • Events
  • Contact us
  • Media Relations
  • Terms & Conditions
  • Privacy Policy
Simons Foundation
Bluesky Facebook Instagram YouTube X RSS Feed

Advancing Research in Basic 
Science and Mathematics

Customize your preferences

Your preferences have been saved.

Confirm your subscription by clicking the link in the email we sent.