Abstract
Secondary school level quantum physics (QP) courses have recently been implemented in the national curricula of many countries. QP gives opportunities to acquaint students with more recent physics and its applications and to discuss aspects of the nature of science. Research has shown that QP is a challenging area for students. Because the inclusion of QP in national curricula is rather new in most countries, it is interesting to compare QP curricula from these countries to make the choices by curriculum designers visible. In this study, we provide a detailed overview of QP courses from fifteen countries. We collected and analyzed official curriculum documents to identify key items present in most curricula. Our inventory identifies a shared current core curriculum of QP which contains the following seven main categories: discrete atomic energy levels, interactions between light and matter, wave-particle duality, de Broglie wavelength, technical applications, Heisenberg's uncertainty principle, and the probabilistic nature of QP. We also found differences in the focus of the listed topics of certain countries, which indicate different views on teaching QP and might inspire curriculum designers struggling with QP. For instance, challenging items like QP interpretations or epistemological aspects of QP arc taught only in a few countries. Although research suggests that epistemological aspects help students to comprehend novel QP concepts, many countries do not explicitly include these in the curriculum. We provide reasons and suggestions for this.
Highlights
Quantum physics (QP) is not all about calculating, and there are diverse reasons why it deserves a place in secondary school curricula
We gave a structured overview of quantum physics (QP) topics in upper secondary school curricula of 15 different countries
Identifying the seven most prevalent QP content items in these countries led to our definition of a current QP core curriculum
Summary
Quantum physics (QP) is not all about calculating, and there are diverse reasons why it deserves a place in secondary school curricula. QP brought us devices like lasers, solar cells, and microchips that are indispensable for modern life and there is an increasing number of research fields where QP offers new possibilities (e.g., DNA decoding with tunneling, quantum computers, or cryptography). School physics that aims to trigger students’ interests with real-life contexts and futureoriented research may better replace some outdated topics in favor of quantum technology. Popular science topics like quantum teleportation, parallel worlds, or quantum computers appeal to the imagination.
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