Enhancing Engineering Education Through Vygotsky’s Sociocultural Approach: Collaboration, Scaffolding, and Real-World Applications
Abstract
The traditional emphasis on individual learning has been expanded by constructivist theorists to include the social and collaborative aspects of learning. Social constructivism is another name for Vygotsky's constructivist theory. Vygotsky argues that a child's culture provides the cognitive resources necessary for their growth. According to social development theory, social interaction comes before development, and socialization and social conduct lead to consciousness and cognition. In a constructivist classroom, Vygotsky's theory is crucial. Language and social and cultural context are instruments that help people learn, according to Vygotsky. Additionally, Vygotsky elucidated two key concepts: the Zone of Proximal Development (ZPD) and the More Knowledgeable Other (MKO). The range of tasks that a student can do with the help of the MKO but is still unable to complete on their own is represented by the ZPD. Using Vygotsky's theory in engineering education means designing classrooms where students work together to solve problems within their ZPD under the direction of more experienced people. Deeper comprehension, critical thinking, and the development of useful skills necessary for engineering practice are all encouraged by this method. Teachers can improve the learning process and make it more relevant and successful in preparing students for real-world engineering challenges by including social interaction and cultural context.
References
Liu CH, Matthews R. Vygotsky's Philosophy: Constructivism and Its Criticisms Examined. International education journal. 2005 Jul;6(3):386-99.
Rahman L. Vygotsky’s zone of proximal development of teaching and learning in STEM education. International Journal of Engineering Research & Technology. 2024;13(8).
Maspul KA. Enhancing project-based learning in STEM education with integrated technology and coding. Journal of Intelligent Systems and Information Technology. 2024 Jan 29;1(1):16-24.
Polly D, Allman B, Casto A, Norwood J. Sociocultural perspectives of learning. Foundations of learning and instructional design technology. 2017 Jan 1.
Abeysiriwardhane A, Lützhöft M, Petersen ES, Enshaei H. Human-centred design knowledge into maritime engineering education; theoretical framework. Australasian Journal of Engineering Education. 2016 Jul 2;21(2):49-60.
Johri A, Olds BM. Situated engineering learning: Bridging engineering education research and the learning sciences. Journal of Engineering Education. 2011 Jan;100(1):151-85.
Crippen KJ, Antonenko PD. Designing for collaborative problem solving in STEM cyberlearning. Cognition, metacognition, and culture in STEM education: Learning, teaching and assessment. 2018:89-116.
Rzyankina E, George F, Simpson Z. Enhancing Conceptual Understanding in Engineering Mathematics Through E-Textbooks. IEEE Transactions on Education. 2024 May 6.
Hite R, Thompson CJ. Activity Theory as theoretical framework for analyzing and designing global K-12 collaborations in engineering: A case study of a Thai-US elementary engineering project. Journal of International Engineering Education. 2019;1(1):5.
Zhao J. Innovative design and research on cooperative learning of English and a Second Foreign Language in a multimedia environment. Eurasian Journal of Applied Linguistics. 2023 Oct 23;9(2):88-105.
