π Research Article
Artificial intelligence in vocational education and training: A systematic review of educational purposes, theoretical conceptualizations, and empirical effectiveness
Authors: Viola Deutscher, Herbert Thomann, Olga Zlatkin-Troitschanskaia, Ulrike Weyland, Stephan Abele, Amory H. Danek, Samuel Greiff, Andreas Rausch, Susan Seeber, JΓΌrgen Seifried, Esther Winther Source: Computers and Education: Artificial Intelligence, Vol 11, 100628 β Open Access (CC BY 4.0)
First systematic review of AI in vocational education and training, identifying 26 empirical studies (2015β2026) via ERIC, Web of Science, and Elicit, analyzed with a theory-informed coding scheme under PRISMA guidelines.
Key Findings
Study Design & Method
This is a PRISMA-guided systematic review of 26 empirical studies (2015β2026) identified through ERIC, Web of Science, and Elicit, with Scopus added as a supplementary domain-specific database, and coded with a theory-informed scheme that distinguishes AI-directed, AI-supported, and AI-empowered human-AI interaction paradigms and underlying learning theories; all included studies were independently double-coded, with coding documented in a publicly available dataset (Appendix 2). Methodologically, quantitative designs dominate (14 studies, surveys most frequent), followed by mixed methods (10) and two qualitative case studies; sample sizes range from 9β15 VET learners (qualitative) to 20β3,518 (quantitative). Among the quantitative studies, 4 employ quasi-experimental approaches and 4 use randomized experiments per the methodological breakdown, and 2 rely exclusively on self-report while 5 use only objective measures (performance tests or log data).
The Constructivist Paradox and the Turing Trap
The review documents a notable paradox: constructivist theories are espoused in VET discourse while behaviorist AI implementations dominate in practice. The authors warn against an educational "Turing Trap" β the danger of using AI to replicate human instruction rather than to augment human judgment. Realizing the transformative potential of AI in VET, they argue, requires learning environments that augment human judgment, strengthen learner agency, and support teachers, rather than systems that merely automate existing instructional patterns.
Implications for AI in Education
For educators and developers, the review offers a map of what the evidence currently supports: XR for procedural and practical skills, ITS for declarative and procedural knowledge, and chatbots for self-regulation support β with the most consistent benefits emerging when AI augments authentic, practice-proximal environments, especially Intelligent Tutoring-style simulations in technical domains. The scarcity of randomized experiments flags the need for stronger causal designs, and the dominance of drill-and-practice implementations suggests that Professional Training contexts are under-serving the learner-agency goals that VET espouses; delayed post-tests, objective performance-based assessments, and analyses of transfer to workplace contexts are largely absent from the literature. The Turing Trap framing connects directly to Research Methods AIED debates and to Constructivist design commitments, and the call for reporting failure cases is a useful corrective to the field's prevailing success narrative β while the heavy reliance on self-report for Self Regulated Learning outcomes should temper claims about chatbots' regulatory effects.
Limitations
The review restricted its search to English-language, peer-reviewed journal articles, likely excluding grey literature and non-English work β a notable gap given the applied, project-based, and often locally documented nature of VET interventions. The database-dependent search may underrepresent regions with distinct publication cultures (partly explaining the Asia/Europe concentration), and the use of Elicit as an AI-assisted discovery tool constrains full reproducibility because retrieved outcomes depend on probabilistic ranking mechanisms and database coverage changes. Finally, the heterogeneity of included studies and frequent lack of transparency about AI implementations and instructional designs required interpretive judgment in coding, despite double-coding and consensus-based resolution of discrepancies.
Connected Concepts
Connected Articles
Citation
Deutscher, V., Thomann, H., Zlatkin-Troitschanskaia, O., Weyland, U., Abele, S., Danek, A. H., Greiff, S., Rausch, A., Seeber, S., Seifried, J., & Winther, E. (2026). Artificial intelligence in vocational education and training: A systematic review of educational purposes, theoretical conceptualizations, and empirical effectiveness.