A machine learned model for quick access to analytic solutions of a QIS system

ORAL

Abstract

For quantum information ion systems, the calculation of analytic solutions describing a state of interest can become computationally expensive even for systems with a relatively small number of ions. This can become a big constriction when attempting to quickly access specific states of a quantum ion system for manipulation. Here we describe the implementation of a Machine Learning algorithm to determine the equilibrium positions of a linear chain of ions, an ideal configuration of ions in a Paul trap or a storage ring with a crystalline beam. Specifically, given the solutions of this system for a relatively small amount of ions, our ML predicts the partial equilibrium solution of the system with a higher number of ions where the numerical approach takes longer calculating time with increasing number of ions.

*This work was performed under Contract No. DE-SC0012704 supported by the U.S. Department of Energy, for the management and operation of Brooh=khaven National Laboratory (BNL).

Authors

  • Salvador Sosa

    • University of New Mexico
    • Department of Electrical and Computer Engineering, University of New Mexico, New Mexico USA
  • Aasma Aslam

    • University of New Mexico
  • Trudy Bolin

    • University of New Mexico
  • Kevin Brown

    • Brookhaven National Laboratory
  • Clio Gonzalez-Zacarias

    • University of Southern California
  • Bohong Huang

    • Brookhaven National Laboratory
  • Salvador Sosa

    • University of New Mexico