Abstract
Over the last few years quantum computers have rose to prominence as a solution for increasing computing power and tackling problems intractable by classical computers. Classical computers have struggled to meet the ever-increasing demand for data processing and modeling. Thus, quantum computers would meet the demand for heavy computing tasks that classical computers could never achieve. Today there exist two promising quantum technologies that have the potential to prove quantum supremacy in the near future: super-conducting qubits and Continuous Variable (CV) model. Out of the two, superconducting qubits have been at the forefront of quantum computing research. NISQ (Noise intermediate-scale quantum) are the existing superconducting qubit computers, and are defined by having a small number of qubits with high inaccuracies due to quantum noise. The CV approach utilize photons in Gaussian states, qumodes, as the main processing unit. CV-based quantum computers present similar computation benefits to superconducting qubit devices. The ease of manufacturing and operation -- due to being able to operate at room temperature -- of CV-based quantum computers make it a likely candidate for wide adoption and accessibility compared to superconducting qubit systems. But because of the underlying differences in the two technologies, research and development of their software stacks have differed greatly, with a lack-thereof for CV devices. The goal of this thesis is to explain and analyze the compilers implemented by Strawberry Fields -- cross platform python library to simulate and execute programs on photonic hardware -- and propose an additional compilation step that will enable future, more flexible hardware implementations.
Library of Congress Subject Headings
Quantum computers; Computer architecture; Compilers (Computer programs)
Publication Date
12-2021
Document Type
Thesis
Student Type
Graduate
Degree Name
Computer Engineering (MS)
Department, Program, or Center
Computer Engineering (KGCOE)
Advisor
Sonia Lopez Alarcon
Advisor/Committee Member
Amlan Ganguly
Advisor/Committee Member
Gregory Howland
Recommended Citation
Rueda, Federico, "Continuous Variable Quantum Compilation Analysis" (2021). Thesis. Rochester Institute of Technology. Accessed from
https://repository.rit.edu/theses/11036
Campus
RIT – Main Campus
Plan Codes
CMPE-MS