eQASM: An Executable Quantum Instruction Set Architecture

  1. X. Fu,
  2. L. Riesebos,
  3. M. A. Rol,
  4. J. van Straten,
  5. J. van Someren,
  6. N. Khammassi,
  7. I. Ashraf,
  8. R.F.L. Vermeulen,
  9. V. Newsum,
  10. K. K. L. Loh,
  11. J. C. de Sterke,
  12. W. J. Vlothuizen,
  13. R. N. Schouten,
  14. C. G. Almudever,
  15. L. DiCarlo,
  16. and K. Bertels
Bridging the gap between quantum software and hardware, recent research proposed a quantum control microarchitecture QuMA which implements the quantum microinstruction set QuMIS. However,

An Experimental Microarchitecture for a Superconducting Quantum Processor

  1. X. Fu,
  2. M. A. Rol,
  3. C. C. Bultink,
  4. J. van Someren,
  5. N. Khammassi,
  6. I. Ashraf,
  7. R.F.L. Vermeulen,
  8. J. C. de Sterke,
  9. W. J. Vlothuizen,
  10. R. N. Schouten,
  11. C. G. Almudever,
  12. L. DiCarlo,
  13. and K. Bertels
Quantum computers promise to solve certain problems that are intractable for classical computers, such as factoring large numbers and simulating quantum systems. To date, research in