Teacher Support in Augmented Reality‐Enhanced Science Inquiry Learning in Primary Classrooms

ABSTRACT Augmented reality (AR) is increasingly integrated into science education, yet the role of teacher support in fostering students' self‐efficacy within AR‐based inquiry learning remains underexplored. This mixed‐methods study investigated the effects of the AR‐based inquiry learning activities on students' science self‐efficacy in various dimensions, as well as the impact of teacher support and students' attitudes toward the features of the designed AR learning environment on students' science self‐efficacy. The study involved 114 Grade 5 students from four classes of a primary school in Singapore. The results showed that the use of AR significantly improved students' conceptual understanding and science communication self‐efficacy. Teachers' emotional support played a key role in conceptual understanding and practical work self‐efficacy, while instrumental support was particularly influential in everyday application. Both forms of teacher support significantly contributed to science communication self‐efficacy. Additionally, students' attitudes toward the AR features partially mediated the effect of emotional support on conceptual understanding self‐efficacy. These findings provide insights for both researchers and practitioners into the importance of and design consideration for adaptive teacher support in optimizing AR‐based science learning in primary school classrooms.

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Publication Details

Journal
Journal of Research in Science Teaching
Published
2026-04-23
DOI
https://doi.org/10.1002/tea.70053
Primary Topic
Augmented Reality Applications
Type
article
Field-Weighted Citation Impact
0.00

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article

Teacher Support in Augmented Reality‐Enhanced Science Inquiry Learning in Primary Classrooms

Zongran Wang, Yun Wen, Sujin He
Journal of Research in Science Teaching
Augmented Reality Applications
article

Teacher Support in Augmented Reality‐Enhanced Science Inquiry Learning in Primary Classrooms

Zongran Wang, Yun Wen, Sujin He
article en

Abstract

ABSTRACT Augmented reality (AR) is increasingly integrated into science education, yet the role of teacher support in fostering students' self‐efficacy within AR‐based inquiry learning remains underexplored. This mixed‐methods study investigated the effects of the AR‐based inquiry learning activities on students' science self‐efficacy in various dimensions, as well as the impact of teacher support and students' attitudes toward the features of the designed AR learning environment on students' science self‐efficacy. The study involved 114 Grade 5 students from four classes of a primary school in Singapore. The results showed that the use of AR significantly improved students' conceptual understanding and science communication self‐efficacy. Teachers' emotional support played a key role in conceptual understanding and practical work self‐efficacy, while instrumental support was particularly influential in everyday application. Both forms of teacher support significantly contributed to science communication self‐efficacy. Additionally, students' attitudes toward the AR features partially mediated the effect of emotional support on conceptual understanding self‐efficacy. These findings provide insights for both researchers and practitioners into the importance of and design consideration for adaptive teacher support in optimizing AR‐based science learning in primary school classrooms.

Journal of Research in Science Teaching
Nanyang Technological University (SG)
Ministry of Education - Singapore
Quality Education
Openalex Percentile: Top 5%
Augmented Reality Applications
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