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Piloting a full-year, optics-based high school course on quantum computing.

Joel A Walsh1, Mic Fenech1, Derrick L Tucker2

  • 1College of Education, STEM Education, The University of Texas at Austin, Austin, TX, United States of America.

Physics Education
|January 19, 2024
PubMed
Summary
This summary is machine-generated.

This study piloted the first high school quantum computing class using classical optics. This approach effectively taught quantum concepts and improved STEM skills.

Keywords:
opticsquantum computingquantum mechanicssecondary education

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Area of Science:

  • Quantum Computing Education
  • Secondary STEM Education

Background:

  • Quantum computing is advancing rapidly, necessitating a skilled workforce.
  • Existing educational efforts focus on higher education, neglecting secondary school preparation.
  • There's a need to develop accessible quantum computing curricula for high school students.

Purpose of the Study:

  • To detail the development and piloting of the first full-year high school quantum computing class.
  • To identify pedagogical and practical lessons for secondary-level quantum computing education.
  • To explore effective methods for introducing quantum computing concepts to younger learners.

Main Methods:

  • Developed and implemented a novel, full-year high school quantum computing course.
  • Utilized classical optics as an accessible model for quantum states and gate operators.
  • Incorporated exploration of quantum optical phenomena before mathematical formalization.

Main Results:

  • Classical optics effectively represented quantum states and gate operators, aiding learning.
  • The pedagogical approach facilitated knowledge transfer to other Science, Technology, and Engineering (STEM) skills.
  • Students demonstrated improved understanding and mastery by first exploring optical phenomena.

Conclusions:

  • Classical optics offers a viable and effective pathway for introducing quantum computing at the high school level.
  • Early exposure to quantum optical phenomena enhances student comprehension of quantum concepts.
  • This work provides valuable insights for designing and implementing secondary quantum computing education.