Long-term impact of a primary school intervention on aspects of Einsteinian physics
Kyla Adams, Roshan Dattatri, Tejinder Kaur, David Blair

TL;DR
This study demonstrates that teaching Einsteinian physics to upper primary students has a lasting impact, with concepts retained nearly a decade later, challenging traditional Newtonian-focused science education.
Contribution
It provides evidence that modern physics concepts can be effectively introduced at the primary level and retained long-term, which is a novel approach in science education.
Findings
Participants retained key Einsteinian concepts after nearly ten years.
The intervention was memorable and beneficial for future learning.
Modern physics can be taught effectively to upper primary students.
Abstract
The physics that underpins modern technology is based on Einstein's theories of relativity and quantum mechanics. Most school students complete their compulsory science education without being taught any of these Einsteinian concepts. Only those who take a specialised physics course have the opportunity to learn modern physics. In 2011, the first study of a modern physics teaching intervention with an Australian upper primary (aged 10{11) class was conducted. The initial intervention was the first step of the Einstein-First collaboration towards challenging the current paradigm of Newtonian teaching in schools. It was found that modern physics concepts could be taught to these students. In 2020, 11 participants of the initial study (out of a total of 26) were contacted for a follow-up questionnaire and interview to investigate any long-term impact. The results of the follow-up indicate…
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