Validating automated assessments of teaching effectiveness using multimodal data

For enhancing student learning in classrooms, high-quality teaching is essential. Research highlighted core dimensions of effective teaching, including classroom management, student support, and cognitive activation. However, traditional methods of assessing teaching effectiveness dimensions (e.g., student surveys) have limitations, including rating biases and resource intensiveness. To overcome these challenges, we explored machine learning (ML) algorithms for the automated assessment of teaching effectiveness. The study analyzed multimodal data—such as video, audio, and transcripts—from the Global Teaching Insights study, which included video recordings and transcripts from 46 teachers and 1,132 students in Germany. Scores for 18 teaching effectiveness subdimensions from three core dimensions were automatically generated by training attention-based ML models on multimodal features extracted from pretrained encoders. These ML-generated scores were compared with scores provided by human experts. A content validity study was conducted, where human experts evaluated the plausibility of ML-generated scores against human-generated scores. Structural equation models were used to assess the relationship between teaching effectiveness subdimensions and students’ tested achievement. ML-generated scores were more reliable for some subdimensions (e.g., nature of discourse), and they were also plausible and content valid. ML-generated scores achieved higher absolute accuracy than human scores in 11 of 18 subdimensions. Limitations include reliance on human ratings as ground truth and inconsistent predictive validity, underscoring the need for refined models to generate actionable insights, such as real-time feedback systems. The findings provide valuable insights for the development of automated feedback, enhancing the practical application of teaching effectiveness assessments. • First study to assess many teaching effectiveness subdimensions multimodally with machine learning (ML; text, audio, video). • ML-generated scores matched or exceeded human reliability in some subdimensions. • ML-generated scores were often rated as plausible by expert human raters. • The predictive validity of ML scores varied, highlighting modeling and study design challenges. • AI approaches show promise for scalable teaching assessment but need further refinement.

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Publication Details

Journal
Learning and Instruction
Published
2025-11-20
DOI
https://doi.org/10.1016/j.learninstruc.2025.102264
Citations
1
Primary Topic
Educational Technology and Pedagogy
Type
article
Field-Weighted Citation Impact
2.48
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article

Validating automated assessments of teaching effectiveness using multimodal data

Enkelejda Kasneci, Tim Fütterer, Efe Bozkir, Babette Bühler et al.
1 citations
Learning and Instruction
Educational Technology and Pedagogy
2.48
article

Validating automated assessments of teaching effectiveness using multimodal data

Enkelejda Kasneci, Tim Fütterer, Efe Bozkir, Babette Bühler, Courtney Bell, Ulrich Trautwein, Peter Gerjets
article en
1 citations

Abstract

For enhancing student learning in classrooms, high-quality teaching is essential. Research highlighted core dimensions of effective teaching, including classroom management, student support, and cognitive activation. However, traditional methods of assessing teaching effectiveness dimensions (e.g., student surveys) have limitations, including rating biases and resource intensiveness. To overcome these challenges, we explored machine learning (ML) algorithms for the automated assessment of teaching effectiveness. The study analyzed multimodal data—such as video, audio, and transcripts—from the Global Teaching Insights study, which included video recordings and transcripts from 46 teachers and 1,132 students in Germany. Scores for 18 teaching effectiveness subdimensions from three core dimensions were automatically generated by training attention-based ML models on multimodal features extracted from pretrained encoders. These ML-generated scores were compared with scores provided by human experts. A content validity study was conducted, where human experts evaluated the plausibility of ML-generated scores against human-generated scores. Structural equation models were used to assess the relationship between teaching effectiveness subdimensions and students’ tested achievement. ML-generated scores were more reliable for some subdimensions (e.g., nature of discourse), and they were also plausible and content valid. ML-generated scores achieved higher absolute accuracy than human scores in 11 of 18 subdimensions. Limitations include reliance on human ratings as ground truth and inconsistent predictive validity, underscoring the need for refined models to generate actionable insights, such as real-time feedback systems. The findings provide valuable insights for the development of automated feedback, enhancing the practical application of teaching effectiveness assessments. • First study to assess many teaching effectiveness subdimensions multimodally with machine learning (ML; text, audio, video). • ML-generated scores matched or exceeded human reliability in some subdimensions. • ML-generated scores were often rated as plausible by expert human raters. • The predictive validity of ML scores varied, highlighting modeling and study design challenges. • AI approaches show promise for scalable teaching assessment but need further refinement.

Learning and InstructionVol. 101
University of Wisconsin–Madison (US), Leibniz-Institut für Wissensmedien (DE), Technical University of Munich (DE), University of Tübingen (DE)
Openalex Percentile: Top 8%
Educational Technology and Pedagogy
2.48
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