Abstract
Computational thinking (CT) has been advocated as an essential problem solving skill students need to develop. Emphasizing on CT applied in both programming and everyday contexts, we developed a humanoid robotics curriculum and a computerized assessment instrument. We implemented the curriculum with six classes of 125 fifth graders. Quantitative methods were used to compare students’ performance from pretest to posttest. Learning analytics techniques were applied to examine students’ problem solving processes. The results showed that students’ CT performance improved in both programming and everyday reasoning contexts and that the curriculum benefited students with varied initial performance. The study shed light on how to connect and assess CT in everyday reasoning and programming contexts.
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The authors declare that they have no conflict of interest.
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Notes on contributors
Ji Shen
Ji Shen is an associate professor of STEM Education at the University of Miami. Dr. Shen's scholarly work focuses on developing and researching innovative, technology-enhanced learning environments, interdisciplinary and integrated STEM learning and assessment, and modeling-based instruction.
Guanhua Chen
Guanhua Chen obtained his PhD from University of Miami. His research focuses on analyzing students' learning processes using big data and new algorithms.
Lauren Barth-Cohen
Lauren Barth-Cohen is an assistant professor of Educational Psychology at the University of Utah. With a research focus on student learning in science, she works to translate that research in ways that can be useful to K-12 teachers.
Shiyan Jiang
Shiyan Jiang is an assistant professor of Learning, Design and Technology at North Carolina State University. Dr. Jiang's research focuses on integrating digital literacy in STEM learning.
Moataz Eltoukhy
Moataz Eltoukhy is an associate professor of Kinesiology and Sport Sciences at the University of Miami. Dr. Eltoukhy's scholarly work focuses on the development of home-based, cost-effective movement analysis tools for patients, and the development of innovative use of humanoid robots in the classroom environment.