Why Engineering-Based Learning Can Revolutionize STEM Teaching in High Schools

For many years, literature has documented the benefits of project-based learning (PBL) and its impact on student learning especially at the high school level. More often than not however, students are still losing interest in STEM (Science, Technology, Engineering, and Mathematics) education because current educational teaching pedagogies have become antiquated and are not impacting student learning, as it should. With that said, our discovery through elicitation of high school educators has cited the main reason for such disinterest is due to the inability of students to connect STEM abstract concepts and theory with STEM application to appreciate the value of learning STEM. With access to information easier than ever, students are forgetting that learning is not about getting the right answer but understanding how to solve a complex problem. In the past, PBL has benefited students in engaging them in hands-on learning however, with a more complex paradigm shift in student learning style, PBL and lecture-based learning are no longer the most effective methods of teaching. Engineering-based learning has the opportunity and potential to modify STEM education and revolutionize STEM teaching pedagogy by changing the one-size-fits-all model to an individual, student-centered learning approach where education is mass customized. This paper discusses a new teaching pedagogy dubbed Engineering-Based Learning (EBL) that is a more systematic approach to high school STEM teaching for open-ended problems. This paper presents the EBL model, the EBL tools, and its impact thus far on high school students. It also presents sample feedback from both teachers and students and how it has influenced their outlook of engineering and STEM in the real world. The purpose of this paper is also to disseminate this new teaching pedagogy to support the notion that STEM education can be successfully taught and provide students with a structured, systematic, hands-on approach, as well as the appropriate tools and resources allowing them to connect complex STEM theory and real-world application.