Where it is used
Each entry identifies the volume, edition, chapter or appendix in which the work appears.
The evidence behind the series
Browse the scientific research and professional literature used across all seven volumes of The Science of Learning for Educators.
Search the collection
Choose an author range, search a title or concept, or narrow the collection by source type. Open any result to see where it appears in the books, read its evidence summary and follow available source links.
5 references
De Mooij and colleagues systematically review how multimodal data and artificial intelligence have been used to study self-regulated learning. They map studies onto a grid connecting cognitive, affective, metacognitive, and motivational processes with behavioural, contextual, physiological, and other data streams.
The review distinguishes unimodal, horizontal, vertical, and integrated analytic approaches and examines whether methods capture regulation as a temporal and sequential process across learning contexts. Research is moving beyond single self-report measures toward combinations such as log data, gaze, discourse, facial or physiological signals, and performance evidence. However, motivation and affect remain underrepresented, studies define and align modalities inconsistently, and conventional statistics are often used even when integrated temporal analysis is needed. AI offers possibilities for pattern detection but does not remove problems of construct validity, interpretation, privacy, or context.
The authors call for theoretically grounded measurement, transparent alignment of indicators with processes, stronger validation, and interdisciplinary designs that connect rich sensing with educationally meaningful support.
Dent and Koenka synthesise research on associations between self-regulated learning and academic achievement from elementary through secondary school. Separate meta-analyses examine metacognitive processes—such as planning, monitoring, and regulation—and cognitive strategies, including rehearsal, organisation, and elaboration.
Average correlations with achievement are positive but modest: approximately .20 for metacognitive processes and .11 for cognitive strategies. Effects vary systematically by the particular process or strategy, school level, subject, how self-regulation is measured, and how achievement is assessed. Measures closer to actual learning activity often differ from broad self-report questionnaires, illustrating why method matters. Because most included evidence is correlational, the synthesis does not establish that increasing a reported strategy directly causes higher achievement.
The findings nevertheless support teaching learners to plan, monitor understanding, select strategies, and adapt, while embedding regulation in subject-specific tasks. Researchers and schools should use multiple, context-sensitive measures and avoid treating self-regulation as a single stable trait.
View or buy the cited work >>Read a similar article free online >>
Dignath and Büttner meta-analyse school-based interventions intended to foster self-regulated learning at primary and secondary levels. They examine effects on academic performance, cognitive and metacognitive strategies, and motivation, while coding programme features, theoretical orientation, instructional approach, duration, subject, and implementer.
Overall, interventions produce positive effects, but outcomes vary across age groups and designs. Programmes are more effective when strategy instruction is explicit, learners receive knowledge about why and when strategies work, and metacognitive reflection links planning, monitoring, and evaluation with actual subject tasks. Motivational components and opportunities for independent practice also matter. Primary-school interventions often show strong effects, demonstrating that self-regulation need not wait until adolescence.
Teacher-delivered programmes can be effective when teachers are prepared and implementation is well supported. The findings favour integrated, subject-embedded instruction over isolated study-skills advice, while heterogeneity and variable study quality caution against assuming that any single component or programme format will work equally well in every context.
Feng, Zhang, and Gašević map changes in artificial intelligence in education by analysing 2,398 articles published from 2020 through 2024 across eight core AIED and learning-analytics venues. Their three-level keyword co-occurrence network analysis examines the field’s overall structure, major knowledge clusters, and emerging bridging topics.
Established technical themes—including intelligent tutoring systems, learning analytics, natural language processing, MOOCs, computer vision, and causal inference—remain prominent. Longitudinal patterns show the rapid rise of large language models and generative AI, alongside multimodal learning analytics and human–AI collaboration. Within generative-AI work, personalisation, self-regulated learning, feedback, assessment, motivation, and ethics are central interests. The authors interpret these developments as movement toward more co-adaptive and human-centred educational AI, while the field remains strongly technology focused.
Because results depend on selected venues, author keywords, preprocessing, and network thresholds, the map describes publication patterns rather than establishing instructional effectiveness or forecasting which technologies will endure.
Fütterer and colleagues test whether customised generative-AI support can strengthen self-regulated learning in regular secondary classrooms. In a randomized trial, 371 students in grades seven to nine completed six physics or English sessions in one of three conditions: a CustomGPT targeting utility value, a CustomGPT prompting cognitive learning strategies, or standard ChatGPT.
The utility-value condition produced a more favourable change in perceived usefulness than the cognitive-strategy condition. Neither tailored intervention showed clear advantages over the control for effort, domain knowledge, or elaboration-based strategy use. Exploratory analyses suggested that more meaningful engagement with the AI was associated with better-maintained interest, and effects did not differ clearly by subject. The findings provide limited, differentiated evidence rather than showing that generic AI automatically improves self-regulation.
Carefully designed prompts may support motivation, but strategic behaviour and learning outcomes require stronger instructional integration, reliable measures, and teacher oversight. The supplied citation calls this work a systematic review; the verified publication is an open-access randomized controlled trial.
A transparent research trail
Each entry identifies the volume, edition, chapter or appendix in which the work appears.
Evidence summaries explain the central idea and why the source matters to educators.
Entries link to lawful full text where available, or to a publisher, library or purchase page.
References are checked against publisher records, scholarly indexes, DOI or ISBN metadata, repositories and author records where available. An entry marked [Citation not verified] preserves the wording found in the relevant volume without attributing findings to an unconfirmed work.
From sources to a coherent pathway