Effects of Teaching Mode on Physics Conceptual Mastery and Learning Engagement: A Comparison between Flipped and Traditional Classrooms

This quantitative study examined whether teaching mode—flipped classroom (FC) versus traditional classroom (TC)—is associated with differences in high-school physics students perceived conceptual mastery (PCMS) and physics learning engagement (PLE). Using a cross-sectional, between-groups design, N = 298 students (FC n = 151; TC n = 147) completed brief Likert-type questionnaires (PCMS, 8 items; PLE, 8 items). Analyses were intentionally limited to descriptive statistics, independent-samples t tests, and one-way ANOVAs. Results showed that FC students reported significantly higher PCMS than TC students (ΔM = 0.22, t(296) = 3.21, p = .0015, d = 0.37) and higher PLE (ΔM = 0.29, t (296) = 4.83, p < .001, d = 0.56). Grade-level ANOVAs revealed modest developmental trends favoring upper grades (PCMS: η² = .023; PLE: η² = .041). Findings suggest that flipped organization is associated with moderately higher engagement and modestly higher perceived conceptual understanding beyond grade effects. Pedagogically, the results support dedicating in-class time to structured problem solving, guided inquiry, and formative feedback while moving content exposure to pre-class micro-materials. Limitations include the cross-sectional design with intact classes, reliance on self-report outcomes, and the absence of covariate adjustment. Future research should combine perceptual measures with standardized concept inventories (e.g., FCI/CSEM) and process data, and test design features and carefully scaffolded AI augmentations as potential moderators. Keywords: flipped classroom; physics education; conceptual mastery; learning engagement; high school; independent-samples t test; one-way ANOVA DOI: 10.7176/JEP/16-13-04 Publication date: December 30th 2025

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Journals & Books Hosting (International Knowledge Sharing Platform)
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2025-12-30
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Innovative Teaching Methods
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article

Effects of Teaching Mode on Physics Conceptual Mastery and Learning Engagement: A Comparison between Flipped and Traditional Classrooms

SHI CHUCHU, SONG JUNRAN
Journals & Books Hosting (International Knowledge Sharing Platform)
Innovative Teaching Methods
article

Effects of Teaching Mode on Physics Conceptual Mastery and Learning Engagement: A Comparison between Flipped and Traditional Classrooms

SHI CHUCHU, SONG JUNRAN
article en

Abstract

This quantitative study examined whether teaching mode—flipped classroom (FC) versus traditional classroom (TC)—is associated with differences in high-school physics students perceived conceptual mastery (PCMS) and physics learning engagement (PLE). Using a cross-sectional, between-groups design, N = 298 students (FC n = 151; TC n = 147) completed brief Likert-type questionnaires (PCMS, 8 items; PLE, 8 items). Analyses were intentionally limited to descriptive statistics, independent-samples t tests, and one-way ANOVAs. Results showed that FC students reported significantly higher PCMS than TC students (ΔM = 0.22, t(296) = 3.21, p = .0015, d = 0.37) and higher PLE (ΔM = 0.29, t (296) = 4.83, p < .001, d = 0.56). Grade-level ANOVAs revealed modest developmental trends favoring upper grades (PCMS: η² = .023; PLE: η² = .041). Findings suggest that flipped organization is associated with moderately higher engagement and modestly higher perceived conceptual understanding beyond grade effects. Pedagogically, the results support dedicating in-class time to structured problem solving, guided inquiry, and formative feedback while moving content exposure to pre-class micro-materials. Limitations include the cross-sectional design with intact classes, reliance on self-report outcomes, and the absence of covariate adjustment. Future research should combine perceptual measures with standardized concept inventories (e.g., FCI/CSEM) and process data, and test design features and carefully scaffolded AI augmentations as potential moderators. Keywords: flipped classroom; physics education; conceptual mastery; learning engagement; high school; independent-samples t test; one-way ANOVA DOI: 10.7176/JEP/16-13-04 Publication date: December 30th 2025

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