Authors: Associate Professor Dr G. Kokila Selva Kumari
Abstract: Robotics-integrated Science, Technology, Engineering, and Mathematics (STEM) education offers opportunities to connect theoretical knowledge with practical problem-solving, creative design, and scientific investigation. By designing, constructing, programming, and testing robotic systems, learners can explore scientific principles, apply mathematical reasoning, develop technological skills, and evaluate engineering solutions. This thematic article examines how robotics-integrated STEM education can foster creativity, innovation, and scientific inquiry, while considering the teaching approaches and institutional conditions that influence its educational value. The discussion draws on published systematic reviews and meta-analyses, alongside established perspectives on constructionist learning, inquiry-based education, and engineering design. Existing evidence suggests that educational robotics can support STEM learning and creativity, although outcomes vary according to learners’ age, instructional design, subject area, duration, and teacher support. Robotics activities are most educationally meaningful when learners investigate authentic problems, generate and compare alternative solutions, test prototypes, interpret evidence, and revise their designs. However, equipment costs, unequal access, insufficient teacher preparation, excessive emphasis on coding, and limited assessment of creative and scientific processes may restrict the benefits. The article argues that robotics should be integrated into STEM curricula as a means of inquiry and design rather than treated merely as a technical activity. It proposes a pedagogical framework linking problem identification, scientific investigation, creative design, prototype testing, evidence-based revision, and reflection. The article concludes that the educational value of robotics depends less on the presence of robotic equipment than on the quality of the learning experiences developed around it.
