INTELLIGENT TUTORING SYSTEMS IN THE EDUCATIONAL PROCESS FOR THE TRAINING OF FUTURE IT-SPECIALISTS
DOI:
https://doi.org/10.31110/2616-650X-vol14i2-011Keywords:
intelligent tutor system, ChatGPT, programming, Elixir, IT‑specialist training, personalized training, pedagogical informatics, adaptive technologiesAbstract
The article offers a theoretically grounded methodological basis for implementing intelligent tutoring systems (ITS) in the training of future IT specialists, leveraging generative language models, thereby addressing the gap identified in the literature between traditional programming training methods and modern IT market requirements. Against the background of the rapid evolution of programming languages and the high dropout rate in introductory courses of 30% to 50%, the author systematizes the ITS architecture (domain, student, tutor models, and interface) and theoretically justifies how the combination of the conversational model with diagnostic algorithms has the potential to provide adaptive learning trajectories and operational feedback. Key novelty – conceptual model guidance-practice-transformation (G-P-T), which offers structuring of the learning process through three stages from explanatory hints to independent projects and transfer of knowledge to new contexts, which is developed on the basis of the synthesis of theories of constructivism, andragogy, and cognitive load. Analysis of meta-analytical studies shows that classical ITS provides a success gain of about 0.61–0.80 standard deviations, and the use of modern language models shows an even higher effect of about 0.867. A comparison of disciplines reveals the greatest potential in programming due to the ability to generate and verify code, but a literature review identifies limitations: false answers, reduced autonomy, and risks of academic dishonesty. Practical contribution — conceptual framework of implementation: design of domain knowledge bases for Elixir, Python, and Java; level-diagnostic algorithms; G-P-T scenarios for three modules; rules for double verification of answers according to official documentation; mechanisms of ethical control; requirements for digital literacy of teachers and students; localization guidelines for the Ukrainian context. The consistency of the approach with constructivism, andragogy, and cognitive load theory is substantiated: the system has the potential to optimize information, activate previous knowledge, provide hints only when necessary, and gradually reduce support. Areas of further research are outlined: empirical verification of the proposed model; Ukrainian-language corpora and glossaries; comparison across disciplines (algorithms, DevOps, cybersecurity); automatic verification of answers; and countermeasures against false answers. The article offers a theoretically grounded, practical framework that has the potential to improve educational outcomes, reduce dropouts, and promote a culture of academic integrity in IT education in Ukraine.
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