This wok provides an overview of progress made toward a transformation of the culture and curriculum of the Mechanical, Aerospace, and Nuclear Engineering (MANE) Department at Rensselaer Polytechnic Institute (RPI) to better equip our students to solve the challenging problems of our world. This work is an adaption and extension of a proven integrated engineering education model from Colorado State University’s NSF IUSE/PFE RED program, scaling up to a large department with four degree programs in a way that is sustainable. Motivated by longstanding challenges in traditional siloed engineering education—such as students’ challenges with connecting fundamental concepts across disciplines, applying abstract knowledge to real-world problems, and understanding professional pathways early in the curriculum—the project is addressing critical needs identified in the National Academy of Engineering’s Educating the Engineer of 2020 report and supported by extensive literature on STEM integration and organizational change. The work leverages evidence-based strategies grounded in engineering education research. The project focuses on enhancing engineering education through six key activities: developing modules to support the application of foundational knowledge, implementing knowledge integration (KI) activities linking discipline-specific courses, embedding vertically integrated projects (VIPs) into the curriculum, fostering student professional formation via Engineers-In-Residence (EIR), supporting faculty teaching development, and continuous programmatic assessment. These elements are designed to foster deeper interdisciplinary understanding, enhance hands-on learning, and improve professional identity formation for undergraduate students in MANE. New curriculum activities have included the successful creation and piloting of foundation modules that refreshed essential math and physics concepts with positive student feedback; effective KI activities in aerospace engineering and control systems that connected courses with related content; and implementation of a VIP centered on Luminescent Solar Concentrators across multiple courses to promote cumulative learning and systems-level understanding. Other supporting activities include initial but promising EIR engagement in career-related support for students; faculty development workshops that encouraged evidence-based teaching practices; and ongoing assessment revealing areas for improvement such as increasing examples in modules, better framing of assignments, and enhanced coordination among courses. Overall, the project is stimulating more collaborative teaching and is demonstrating the feasibility and value in integrating interdisciplinary learning experiences into a large, multi-program department, to better prepare engineering students for complex professional challenges.
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Building bridges: a review and synthesis of research on teaching knowledge for undergraduate instruction in science, engineering, and mathematics
Abstract Here, we systematically review research on teaching knowledge in the context of undergraduate STEM education, with particular attention to what this research reveals about knowledge that is important for evidence-based teaching. Evidence-based teaching can improve student outcomes in undergraduate STEM education. However, the enactment of promising evidence-based teaching strategies depends greatly on the instructor and potentially on the teaching knowledge they are able to deploy. The review includes an overview of prevalent teaching knowledge theory, including pedagogical content knowledge, mathematical knowledge for teaching, and pedagogical knowledge. We compare and contrast teaching knowledge theory and terminology across STEM disciplines in order to build bridges for researchers across disciplines. Our search for peer-reviewed investigations of teaching knowledge in undergraduate science, engineering and mathematics yielded 45 papers. We examined the theoretical frameworks used in each study and analyzed study approaches, comparing across disciplines. Importantly, we also synthesized findings from research conducted in the context of evidence-based teaching. Overall, teaching knowledge research is sparse and siloed by discipline, and we call for collaborative work and better bridge-building across STEM disciplines. Though disciplinary divergences are common in discipline-based education research, the effect is magnified in this research area because the theoretical frameworks are themselves siloed by discipline. Investigations of declarative knowledge were common, and we call for increased attention to knowledge used in the practice of teaching. Finally, there are not many studies examining teaching knowledge in the context of evidence-based teaching, but the existing work suggests that components of pedagogical content knowledge, pedagogical knowledge, and content knowledge influence the implementation of evidence-based teaching. We describe implications for future teaching knowledge research. We also call on those who develop and test evidence-based strategies and curriculum to consider, from the beginning, the teaching knowledge needed for effective implementation.
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- PAR ID:
- 10402465
- Date Published:
- Journal Name:
- International Journal of STEM Education
- Volume:
- 9
- Issue:
- 1
- ISSN:
- 2196-7822
- Format(s):
- Medium: X
- Sponsoring Org:
- National Science Foundation
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