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An educator demonstrates a paper-reading tool on a large screen while university students watch, take notes, and hold an annotated expectations card.
ジャーナル論文Peer-reviewed study20252026年8月31日· 10 min

Students rated AI tools differently after demonstrations, but expected support was not tested learning

Joana Heil, Dirk Ifenthaler, Martin Cooper, Maria Lidia Mascia, Rachele Conti, Maria Pietronilla Penna

Smart Learning Environments

500語要約

An educator demonstrates a paper-reading tool on a large screen while university students watch, take notes, and hold an annotated expectations card.

Students can expect different things from an AI reading assistant, translator, chatbot, or presentation tool. Joana Heil and colleagues investigated those expectations in a study spanning three universities. They found that perceived educational support varied across applications and was associated with self-reported AI competence. The distinction between an expectation and an observed outcome is central: participants watched demonstrations and rated potential uses, so the study did not test whether any tool actually improved learning or assessment performance.

The researchers recruited 223 students through convenience sampling at one university each in Australia, Germany, and Italy. Most participants were undergraduates. Their online survey covered learning and assessment experiences, perceptions of selected AI applications, and dimensions of AI competence. A shared data-collection protocol presented similarly structured short videos demonstrating a specific educational use case, followed by questions about expected benefits, acceptability, and related issues. The tools included ChatGPT, DeepL, ExplainPaper, PaperDigest, Quillbot, and Tome as they were represented in those demonstrations.

The design makes the object of evaluation unusually clear. Students were judging a described possibility, such as simplifying a difficult paper or preparing a presentation, rather than interacting with an application on their own coursework. That is useful for understanding initial appeal and anticipated purpose. It also means the results depend partly on how the example problem and tool were presented. A convincing demonstration could raise expectations without revealing the difficulties a student encounters during independent use.

Ratings differed among the six applications. ExplainPaper received the highest average rating for expected learning and assessment support in the reported comparison, with significant differences from several other tools. Students’ competence ratings were also uneven across dimensions, with attitudes rated more highly than theoretical understanding. Overall self-reported AI competence had a positive association with tool evaluations. This relationship was limited in size and does not establish whether competence produced favorable judgments, favorable experiences shaped self-confidence, or another factor influenced both.

The authors additionally explored whether expectations clustered around understanding material or achieving performance goals. That distinction is potentially useful: improving a grade, saving effort, and understanding a concept are not identical purposes. However, the statistical models describe patterns in survey responses, not demonstrated categories of actual tool use. Some reported fit indices were less favorable than others. The proposed grouping is therefore best read as an interpretation to investigate, rather than a fixed classification of what an application necessarily does for learners.

The paper’s limitations explicitly include convenience sampling, reliance on questionnaires, and the absence of direct interaction with the tools. Three institutions do not provide representative samples of three national student populations. More importantly, no experiment or authentic use-case assessment linked expectations to learning outcomes. The authors call for longitudinal and mixed-methods research that follows competence and use over time. Changing products also mean the findings should not be presented as a current comparative review of their capabilities.

For AIEDHK, the study offers a useful starting point for a pilot rather than an endpoint. Before students try a tool, educators could record what they expect it to help with. After a defined activity, they could compare those expectations with task quality, an independent understanding check, and the effort required to verify outputs. This proposed extension would connect perceived usefulness to observable educational value while preserving the distinction between enthusiasm, competence, performance, and learning.

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