Transforming formal knowledge to language and graphs to promote mathematics learning: A repeated-measures mixed design quasi-experiment

The transition from school to university mathematics presents a significant challenge for students, as both the demands on mathematical reasoning and the level of abstraction increase. This often makes it difficult for learners to construct the mental models necessary for understanding mathematical content and meeting academic requirements. Research has shown that incorporating a second level of content representation—particularly graphical representations—can help students develop more viable mental models. This longitudinal quasi-experimental study aims to enhance mathematical learning in higher education by supporting students' mental modeling. We use a new approach called natural-language conceptual Graph (NaGra), which translates mathematical formalism into natural language. Using computer-linguistic software, we then generate knowledge maps from these texts, providing two distinct types of additional representations to complement traditional instruction. In a 6-point repeated-measures control-group design, 139 math undergraduates received either (a) a natural language text, (b) a knowledge map, (c) both the natural language text and the knowledge map, or (d) the traditional instruction based solely on mathematical formalism. Results from non-parametric longitudinal analyses indicate that students in the experimental conditions consistently outperformed those in the control group over time in mathematical performance. However, students did not perceive the added value of these representations. These findings suggest that the NaGra method can contribute to students’ understanding of STEM subjects (science, technology, engineering, and mathematics), where first-year students often struggle to adapt to abstract formal content. • Longitudinal study with six time points and three experimental conditions. • Natural-language conceptual graph (NaGra) method, computer-linguistic technology. • Translating math formalism into natural language texts and knowledge maps thereof. • NaGra-texts and knowledge maps successfully foster undergraduates' math performance. • NaGra method may mitigate transition from school to university level mathematics.

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Publication Details

Journal
Computers in Human Behavior Reports
Published
2025-02-28
DOI
https://doi.org/10.1016/j.chbr.2025.100640
Primary Topic
Innovative Teaching and Learning Methods
Type
article
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article

Transforming formal knowledge to language and graphs to promote mathematics learning: A repeated-measures mixed design quasi-experiment

Pablo Pirnay‐Dummer, Inka Hähnlein, Nils Waterstraat, Philipp Reiter et al.
Computers in Human Behavior Reports
Innovative Teaching and Learning Methods
article

Transforming formal knowledge to language and graphs to promote mathematics learning: A repeated-measures mixed design quasi-experiment

Pablo Pirnay‐Dummer, Inka Hähnlein, Nils Waterstraat, Philipp Reiter, Clara Luleich
article en

Abstract

The transition from school to university mathematics presents a significant challenge for students, as both the demands on mathematical reasoning and the level of abstraction increase. This often makes it difficult for learners to construct the mental models necessary for understanding mathematical content and meeting academic requirements. Research has shown that incorporating a second level of content representation—particularly graphical representations—can help students develop more viable mental models. This longitudinal quasi-experimental study aims to enhance mathematical learning in higher education by supporting students' mental modeling. We use a new approach called natural-language conceptual Graph (NaGra), which translates mathematical formalism into natural language. Using computer-linguistic software, we then generate knowledge maps from these texts, providing two distinct types of additional representations to complement traditional instruction. In a 6-point repeated-measures control-group design, 139 math undergraduates received either (a) a natural language text, (b) a knowledge map, (c) both the natural language text and the knowledge map, or (d) the traditional instruction based solely on mathematical formalism. Results from non-parametric longitudinal analyses indicate that students in the experimental conditions consistently outperformed those in the control group over time in mathematical performance. However, students did not perceive the added value of these representations. These findings suggest that the NaGra method can contribute to students’ understanding of STEM subjects (science, technology, engineering, and mathematics), where first-year students often struggle to adapt to abstract formal content. • Longitudinal study with six time points and three experimental conditions. • Natural-language conceptual graph (NaGra) method, computer-linguistic technology. • Translating math formalism into natural language texts and knowledge maps thereof. • NaGra-texts and knowledge maps successfully foster undergraduates' math performance. • NaGra method may mitigate transition from school to university level mathematics.

Computers in Human Behavior ReportsVol. 18
Martin Luther University Halle-Wittenberg (DE)
Quality Education
Openalex Percentile: Top 97%
Innovative Teaching and Learning Methods
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