Eric W. Aspling

Binghamton University.

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I recently earned my Ph.D. at Binghamton University studying relativistic quantum information and quantum computing under the supervision of Michael Lawler. My project focused on quantum field mediated processes and Quantum Shannon theoretic applications to condensed matter systems. Utilizing an impurity form of the Tomonaga-Luttinger liquid, I was able to introduce quantum circuitry with a basis in QFT to condensed matter protocols through the process of bosonization. In the formalism of continuous coherent states, I deleveloped noise models with dephasing-like protocols and a set of universal field-mediated quantum gates.

I am currently employed as a Postdoctoral Fellow with the Griffiss Institute at the Air Force Research Lab in Rome N.Y. My current interests include qubit-field interactions in superconducting quantum computing and circuit QED, heterogeneous quantum device networking, and long-range quantum transduction with emphasis on the nature of quantum fields. I currently maintain a collaboration with Binghamton and Cornell, elucidating quantum information protocols in doped monolayer TMDs. My studies involving qubit-field interactions have left an insatiable urge for understanding the nature of time when introducing quantum circuits on a manifold. This includes problems such as post-selected closed time-like curves, information paradoxes, quantum thermodynamics, etc.

I spent the entriety of my PhD. honing skills as an instructor and science communicator and became very passionate about these. Please browse the various pages in the cite for more details. Thanks.

selected publications

  1. Design Constraints for Unruh-DeWitt Quantum Computers
    Eric W. Aspling, John A. Marohn, and Michael J. Lawler
    2022
  2. Revealing microcanonical phases and phase transitions of strongly correlated systems via time-averaged classical shadows
    Gaurav Gyawali, Mabrur Ahmed, Eric W. Aspling, and 2 more authors
    Phys. Rev. B Dec 2023
  3. High Capacity Noisy Unruh–DeWitt Quantum Channels with Bosonic Dephasing
    Eric Aspling, and Michael Lawler
    Dec 2023
  4. Universal Quantum Computing with Field-Mediated Unruh–DeWitt Qubits
    Eric Aspling, and Michael Lawler
    Dec 2024