The rapid evolution of the global scientific and technological environment necessitates a shift in educational paradigms toward approaches that emphasize interdisciplinary knowledge, scientific inquiry, and creative problem‑solving. Among contemporary educational strategies, STEAM (Science, Technology, Engineering, Arts, and Mathematics) has emerged as a powerful pedagogical framework that integrates multiple disciplines to foster learners’ research, critical thinking, and collaboration skills. Research on STEAM implementation in schools has demonstrated that STEAM approaches positively influence students’ learning outcomes, affective engagement, and development of higher‑order skills (systematic review findings; e.g., Asia Journal of Mathematics, Science and Technology Education, 2025).

Specifically, STEAM’s integration of scientific inquiry with technology, engineering practices, artistic creativity, and mathematical reasoning creates authentic contexts where students develop research competencies through project‑based and inquiry‑driven tasks. Such activities require learners to pose questions, collect and analyze data, engage in iterative design, and communicate results – all essential components of research literacy. International studies with secondary school populations have reported significant improvements in students’ scientific creativity and problem‑solving skills following engagement in STEAM curricula. For example, STEAM‑based curricula in junior high contexts improved scientific creativity regardless of instructional sequence, highlighting the value of interdisciplinary designs in fostering research mindsets (Frontiers, 2021).

In Kazakhstan, STEAM education has been increasingly adopted as part of curriculum modernization efforts, with national guidance recommending the incorporation of integrated learning tasks, project work, and hands‑on investigations across grade levels to enhance learners’ capabilities (Ministry of Science and Higher Education of Kazakhstan STEAM policy outline). Furthermore, local methodological materials and teacher development guides (e.g., STEAM Q&A manuals by regional teacher development centers) support school practitioners in designing STEAM tasks that cultivate students’ functional and research skills.

Despite broad theoretical endorsement, the practical implementation of STEAM in schools, especially at the middle school level, continues to present challenges. Teachers often need more training in seamlessly integrating disciplines and structuring authentic research experiences for students. Research conducted in Kazakhstan has pointed to barriers such as limited teacher preparedness for interdisciplinary instruction and contextual demands in organizing STEAM tasks that engage learners deeply. For example, studies on biology instruction with STEAM showed that teacher readiness and contextual supports are pivotal for effective implementation.

Within this national and international context, this study investigates how the systematic implementation of STEAM pedagogies in 7th grade classes at the Nazarbayev Intellectual School in Aktau, Kazakhstan impacts students’ research competencies. The 7th grade represents a critical transition period where learners shift from structured foundational knowledge toward more autonomous inquiry. Therefore, examining STEAM’s potential to enhance students’ formulation of research questions, design of investigations, data interpretation, and communication of findings is both timely and significant.

This study employed a mixed methods research design combining quantitative and qualitative data to comprehensively assess changes in students’ research competencies following a semester of STEAM based learning interventions. Participants The participants were 58 seventh grade students enrolled in two 7B cohorts at the Nazarbayev Intellectual School in Aktau. The classes were comparable in academic achievement levels and were selected to ensure representation of diverse learning profiles and prior exposure to traditional science instruction. Intervention The STEAM instructional intervention spanned 12 weeks, with weekly sessions replacing conventional subject lessons in science and mathematics. Modules were structured around authentic problem scenarios requiring students to: 1. Identify a real world problem; 2. Formulate research questions and hypotheses; 3. Design and conduct investigations; 4. Collect and analyze data; 5. Develop artefacts (models, simulations, or products); 6. Communicate findings through presentations and reports. The pedagogical approach was grounded in project based learning (PBL) integrated with STEAM principles, emphasizing inquiry, collaboration, and reflection. Teachers received preparatory professional development sessions aligned with STEAM design principles prior to implementation. Instruments To measure research competence development, the following instruments were used: • Pre Post Research Skills Assessment — a validated rubric assessing students’ proficiency in research question formation, data collection, analytical reasoning, and evidence based explanation. • Student Research Portfolio — structured compilation of project artefacts including hypothesis statements, data logs, analytical reflections, and final products. • Classroom Observation Protocols — checklists used by researchers to document instructional practices and student engagement during STEAM activities. • Student Self Reflection Questionnaires — Likert scale surveys capturing students’ perceptions of their research confidence, interest, and collaborative experiences. Data Collection and Analysis Quantitative data from the pre post assessment and questionnaires were analyzed using paired t tests to evaluate statistical significance in research competence growth. Qualitative data from portfolios and observation notes were analyzed thematically to identify patterns of engagement, instructional supports, and areas of challenge in students’ research processes.

We expect the STEAM intervention to result in statistically significant gains in students’ research competencies, particularly in hypothesis formulation, data interpretation, and evidence based reasoning, as evidenced by pre post assessment improvements. Qualitative analyses are anticipated to reveal enhanced student engagement with inquiry tasks, increased collaborative problem solving, and deeper reflection on scientific processes. Additionally, students are expected to report higher self efficacy in planning and conducting research projects and more positive attitudes toward interdisciplinary learning. These outcomes collectively support STEAM’s role in fostering student research literacy in middle school settings. The findings of this study are anticipated to demonstrate that a well designed STEAM instructional framework supports meaningful development of 7th grade students’ research competencies. Improved performance on structured research tasks and positive student reflections would show that STEAM’s integration of science, technology, engineering, arts, and mathematics can transform traditional classroom experiences into authentic research contexts. By engaging learners in inquiry cycles, hands on experimentation, data interpretation, and communication of findings, STEAM instruction aligns with global educational objectives that emphasize 21st century skills. Moreover, implementation insights drawn from classroom observations and portfolios will highlight effective practices and areas for enhancing teacher preparation and curriculum design. These implications contribute to both theoretical and practical knowledge about STEAM education in Kazakhstan, addressing documented needs for interdisciplinary pedagogy and student centered inquiry. Ultimately, this research aims to inform policy, teacher professional development programs, and school level planning to promote the sustained integration of STEAM that supports all learners’ abilities to inquire, innovate, and collaborate.

1.Bequette, J. W., & Bequette, M. B. (2012). A Place for Art and Design Education in the STEM Conversation. Art Education, 65(2), 40–47. 2.Conradty, C., & Bogner, F. X. (2020). STEAM teaching professional development works: effects on students’ creativity and motivation. Smart Learning Environments, 7, 26. 3.Harris, C. J., & De Bruyckere, P. (2018). Students’ Research Literacy: Theory and Practice. Routledge. 4.Honey, M., & Pearson, G. (2014). STEM Integration in K 12 Education: Status, Prospects, and an Agenda for Research. National Academies Press. 5.Ministry of Science and Higher Education of Kazakhstan. National STEAM implementation guidelines. (2025). 6.Milara, I. S., & Orduña, M. C. (2024). Possibilities and challenges of STEAM pedagogies. Preprint. 7.Ngo, T., & Phan, L. (2021). Effects of interdisciplinary STEAM curriculum on junior high scientific creativity. Frontiers in Education. 8.Qozhabek, E. K. (2025). STEAM integration challenges in biology education. Qazaq Journal of Young Scientist. 9.Thomas, J. W. (2000). A Review of Research on Project Based Learning. Autodesk Foundation. 10.Vasquez, J. A. (2013). STEAM Education: Why Arts? Why Now? Teachers College Press.