Benchmarking Quantum Algorithms Using Real-World Datasets

Quantum kernel methods are a way to use quantum computers for pattern recognition and data analysis. They map data into a high-dimensional quantum feature space, where classical and quantum similarities can be compared. Benchmarking these kernels helps researchers understand when quantum approaches outperform traditional machine-learning kernels such as the radial basis function (RBF) kernel.

In this project, students will use Qiskit, an open-source software development platform for building and testing quantum circuits, to benchmark quantum kernels using generated a real-world data sets.  Interested students should have experience with quantum information and/or Qiskit/Python and have completed a course in linear algebra.  Students will work directly with Prof. Hoffman and his graduate students. 

Name of research group, project, or lab
Hoffman Lab
Logistics Information:
Project categories
Electrical Engineering
Student ranks applicable
Sophomore
Junior
Senior
Student qualifications
  • Completed a course in linear algebra
  • Familiar with the concepts of quantum information by self-study or EE40075 - Introduction to Quantum Computing
  • Familiar with Python and Qiskit
Hours per week
1 credit / 3-6 hours
2 credits / 6-12 hours
3 credits / 12+ hours
Compensation
Research for Credit
Number of openings
2
Techniques learned

Students will:

  • Learn and apply the principles of quantum information
  • Explore kernel methods for machine learning
  • Interpret quantum measurements for applications in quantum kernels
  • Implement quantum algorithms using platforms like Qiskit
  • Learn and implement techniques in error mitigation
  • Compare results across noisy, ideal, and physical quantum backends
  • Design controlled benchmarking experiments
  • Analyze performance metrics in quantum and classical support vector machines
  • Write concise technical summaries and present results at meetings (including with our external sponsors)
  • Gain familiarity with open-source research tools and quantum computing platforms
  • Publish results in peer-reviewed journals and give talks at national conferences
Contact Information:
Mentor
ahoffma8@nd.edu
Professor
Name of project director or principal investigator
Anthony Hoffman
Email address of project director or principal investigator
ajhoffman@nd.edu
2 sp. | 0 appl.
Hours per week
1 credit / 3-6 hours (+2)
1 credit / 3-6 hours2 credits / 6-12 hours3 credits / 12+ hours
Project categories
Electrical Engineering