Advancing educational robotics: competence development for pre-service computer science teachers




robotics, educational robotics, competence development, pre-service teachers, STEAM education, computer science teachers


The rapid growth of robotics as an applied industry has created a pressing demand for robotics specialists skilled in the development, design, and programming of robots. This has led to the widespread popularity of robotics as an educational trend, both in Ukraine and worldwide. Integrating educational robotics into STEAM education offers a powerful platform for cultivating students’ soft skills, enabling them to tackle real-world socially significant projects and bridging the gap between theoretical knowledge and practical application. Consequently, there is a crucial need to equip pre-service teachers with the necessary skills to effectively teach educational robotics to students. This article addresses the issue of establishing a comprehensive model of competences in educational robotics for teachers and explores strategies for their development. The research demonstrates that pre-service computer science teachers exhibit the highest readiness to teach educational robotics in secondary schools. The article focuses on developing and validating a model of competences in educational robotics for pre-service computer science teachers, highlighting its effectiveness through the teaching of educational robotics disciplines. By fostering competence development among teachers, this study aims to advance the integration of educational robotics in classrooms, empowering students to thrive in a digitally-driven society.


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Anisimova, T.I., Sabirova, F.M. and Shatunova, O.V., 2020. Formation of Design and Research Competencies in Future Teachers in the Framework of STEAM Education. International Journal of Emerging Technologies in Learning, 15(02), pp.204–217. Available from: DOI:

Battelle for Kids, 2019. Frameworks & Resources. Available from:

Buzhinskaya, N.V. and Grebneva, D.M., 2018. Development of prospective IT teachers’ ICT competence while studying robotics. Samara journal of science, 7(2), pp.229–233. Available from: DOI:

Buzhinskaya, N.V., Grebneva, D.M. and B., M.I., 2017. Designing an electronic training course in robotics for students of the specialty 09.02.05 ’Applied Informatics (in Economics)’. Sovremennyie problemyi nauki i obrazovaniya, 2. Available from:

Digital Transformation Initiative In collaboration with Accenture, 2018. Unlocking $100 Trillion for Business and Society from Digital Transformation. Executive Summary. Available from:

Edel, M., 2017. Introduction of STEAM-education in the Zaporozhye regional center of scientific and technical creativity of student’s youth ‘Grani’. Proceedings of the III International Scientific Practical Conference ’STEM-education state of implementation and prospects of development’ (9-10 November, 2017). pp.47–50. Available from:

Eguchi, A., 2014. Educational robotics for promoting 21 century skills. Journal of Automation, Mobile Robotics & Intelligent Systems, 8(1), pp.9–11. Available from: DOI:

Goloborodko, E.N., 2012. Robotics as a resource for the formation of students’ key competencies. Available from:

Gossett, S., 2021. Farming and agriculture robots. Available from:

Hrynevych, L., Morze, N., Vember, V. and Boiko, M., 2021. Use of digital tools as a component of STEM education ecosystem. Educational Technology Quarterly, 2021(1), p.118–139. Available from: DOI:

IFR International Federation of Robotics, 2020. Welcome to the IFR Press Conference 24th September 2020 Frankfurt. Available from: Presentation_WR_2020.pdf.

Kushnir, N., Osypova, N., Valko, N. and Kuzmich, L., 2020. Model of an Education Robotics Course for Natural Sciences Teachers. In: A. Bollin, H.C. Mayr, A. Spivakovsky, M.V. Tkachuk, V. Yakovyna, A. Yerokhin and G. Zholtkevych, eds. Proceedings of the 16th International Conference on ICT in Education, Research and Industrial Applications. Integration, Harmonization and Knowledge Transfer. Volume I: Main Conference, Kharkiv, Ukraine, October 06-10, 2020., CEUR Workshop Proceedings, vol. 2740, pp.322–333. Available from:

Martyniuk, O.O., Martyniuk, O.S., Pankevych, S. and Muzyka, I., 2021. Educational direction of STEM in the system of realization of blended teaching of physics. Educational Technology Quarterly, 2021(3), p.347–359. Available from: DOI:

Mazorchuk, M.S., Vakulenko, T.S., Bychko, A.O., Kuzminska, O.H. and Prokhorov, O.V., 2020. Cloud technologies and learning analytics: Web application for PISA results analysis and visualization. Ceur workshop proceedings, 2879, pp.484–494. DOI:

Mintii, M.M., 2023. Selection of pedagogical conditions for training STEM teachers to use augmented reality technologies in their work. Educational Dimension. Available from: DOI:

Morze, N., Smyrnova-Trybulska, E. and Gladun, M., 2018. Selected aspects of IBL in STEM-education. E-learning and smart learning environment for the preparation of new generation specialists, 10, pp.361–379. Available from:

Morze, N., Strutynska, O. and Umryk, M., 2018. Educational Robotics as a prospective trend in STEM-education development. Open educational e-environment of modern University, 5, pp.178–187. Available from: DOI:

Morze, N.V., Gladun, M.A. and Dziuba, S.M., 2018. Formation of key and subject competences of students by robotic kits of STEM-education. Information technologies and learning tools, 65(3), p.37–52. Available from: DOI:

Morze, N.V., Vember, V.P. and Gladun, M.A., 2019. 3D mapping of digital competency in ukrainian education system. Information technologies and learning tools, 70(2), p.28–42. Available from: DOI:

Mâţǎ, L., 2011. Experimental research regarding the development of methodological competences in beginning teachers. Procedia - Social and Behavioral Sciences, 29, pp.1895–1904. Available from: DOI:

Nechypurenko, P., Semerikov, S., Selivanova, T. and Shenayeva, T., 2021. Selection of ICT tools for the development of high school students’ research competencies in specialized chemistry training. Educational Technology Quarterly, 2021(4), p.617–661. Available from: DOI:

Ovcharuk, O., 2020. European strategy for determining the level of competence in the field of digital technologies: a framework for digital competence for citizens. Educational Dimension, 3, p.25–36. Available from: DOI:

Prokhorov, O.V., Lisovichenko, V.O., Mazorchuk, M.S. and Kuzminska, O.H., 2022. Implementation of digital technology for student involvement based on a 3D quest game for career guidance and assessing students’ digital competences. Educational Technology Quarterly, 2022(4), p.366–387. Available from: DOI:

Remake Learning Competencies. Robotics Competencies. Project Results 2014-2015. Pittsburgh (USA), 2015. Available from:

Sedina, E.S. and Soboleva, E.V., 2018. Justification of the need to improve the model of teaching robotics as the basis of the strategy for training personnel for the professions of the future. Kontsept, 7, pp.540–551. Available from:

Seidametova, Z., Abduramanov, Z. and Seydametov, G., 2022. Hackathons in computer science education: monitoring and evaluation of programming projects. Educational Technology Quarterly, 2022(1), p.20–34. Available from: DOI:

Strutynska, O., 2019. Actuality of Implementation of Educational Robotics in Ukrainian School. Open educational e-environment of modern University, (SPECIAL EDITION “NEW PEDAGOGICAL APPROACHES IN STEAM EDUCATION”), pp.324–344. Available from: DOI:

Strutynska, O., 2019. Preparation of the Future Computer Science Teachers for Teaching of the Educational Robotics in Schools. Cherkasy University Bulletin: Pedagogical Sciences, 3, pp.183–194. Available from: DOI:

Strutynska, O. and Umryk, M., 2019. Learning StartUps as Project Based Approach in STEM Education. E-learning and STEM Education, 11, pp.529–555. Available from:

Trubavina, I., Vorozhbit-Gorbatyuk, V., Shtefan, M., Kalina, K. and Dzhus, O., 2021. From the experience of organizing artistic and productive activities of older preschool children by means of distance education in the conditions of quarantine measures for the spread of COVID-19. Educational Technology Quarterly, 2021(1), p.51–72. Available from: DOI:

Vegner, K.A., 2013. Introduction of robotics in modern schools. Vestnik Novgorodskogo gosudarstvennogo universiteta, 74(2), pp.17–19. Available from:

Zhaldak, M.I., Ramsky, Y.S., Strutynska, O.V. and Umryk, M.A., 2020. Secondary education (computer science) and robotics: BSc educational program, specialty 014.09 ’Secondary education (computer science)’.

Zhaldak, M.I., Ramsky, Y.S., Strutynska, O.V. and Umryk, M.A., 2020. Secondary education (computer science) and robotics: MSc educational program, specialty 014.09 ’Secondary education (computer science)’.






Digital Transformation of Education

How to Cite

Morze, N.V. and Strutynska, O.V., 2023. Advancing educational robotics: competence development for pre-service computer science teachers. CTE Workshop Proceedings [Online], 10, pp.107–123. Available from: [Accessed 14 June 2024].
Received 2022-10-09
Accepted 2022-12-22
Published 2023-03-21

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