TY - GEN
T1 - Examples of Enablers for Curriculum Agility
AU - Brink, Suzanne
AU - Carlsson, Carl Johan
AU - Enelund, Mikael
AU - Gomez Puente, Sonia M.
AU - Keller, Elizabeth
AU - Lyng, Reidar
AU - McCartan, Charles
AU - Rooij, R.M.
PY - 2025
Y1 - 2025
N2 - Within six institutions, Chalmer’s University of Technology, Delft University of Technology, Eindhoven University of Technology, NTNU, Queen’s University Belfast, and Umeå University, activities of self-mapping Curriculum Agility have taken place, facilitated by the co-creators of this work. In this paper, they reflect on enablers of Curriculum Agility that they identified during the self-mapping process at their respective institutions. By putting a spotlight on enablers, ways to overcome obstacles are exemplified, when the ambition is to proactively futureproof an engineering curriculum. These enablers help in four curriculum innovation areas, which each have their own challenges: (1) Continuously adjusting learning content in courses, creating a need for a teaching and learning system with more dynamic learning goals and on-the-go, reciprocal expertise development. (2) Implementing or refining flexible education pedagogy and didactics to tailor to and being inclusive of the diverse student populations entering university. (3) Working with a responsive organisation and a continuously-change-facilitating management, where engagement and ownership of educational innovation is shared, and innovation space is constructively created where desired and needed. (4) Continuously developing all academic staff involved in engineering education innovation, for informed decision-making and shared understanding of the pedagogic and (inter- and trans-) disciplinary innovations needed to keep the engineering programme relevant and of high quality. This paper highlights positive examples of Curriculum Agility, and how its characteristics and principles can be implemented in a variety of university contexts with different organisational structures.
AB - Within six institutions, Chalmer’s University of Technology, Delft University of Technology, Eindhoven University of Technology, NTNU, Queen’s University Belfast, and Umeå University, activities of self-mapping Curriculum Agility have taken place, facilitated by the co-creators of this work. In this paper, they reflect on enablers of Curriculum Agility that they identified during the self-mapping process at their respective institutions. By putting a spotlight on enablers, ways to overcome obstacles are exemplified, when the ambition is to proactively futureproof an engineering curriculum. These enablers help in four curriculum innovation areas, which each have their own challenges: (1) Continuously adjusting learning content in courses, creating a need for a teaching and learning system with more dynamic learning goals and on-the-go, reciprocal expertise development. (2) Implementing or refining flexible education pedagogy and didactics to tailor to and being inclusive of the diverse student populations entering university. (3) Working with a responsive organisation and a continuously-change-facilitating management, where engagement and ownership of educational innovation is shared, and innovation space is constructively created where desired and needed. (4) Continuously developing all academic staff involved in engineering education innovation, for informed decision-making and shared understanding of the pedagogic and (inter- and trans-) disciplinary innovations needed to keep the engineering programme relevant and of high quality. This paper highlights positive examples of Curriculum Agility, and how its characteristics and principles can be implemented in a variety of university contexts with different organisational structures.
KW - curriculum agility
KW - transformative curriculum change
KW - futureproof engineering education
KW - change management
KW - standards: 1-12
KW - optional standards: 1-4
UR - https://cdio.org/knowledge-library/documents/examples-enablers-curriculum-agility
UR - https://www.scopus.com/pages/publications/105032123641
M3 - Conference contribution
T3 - Proceedings of the International CDIO Conference
SP - 603
EP - 614
BT - Proceedings of the 21st International CDIO Conference, Melbourne, Australia, 2-5 June 2025
A2 - Maynard, N.
A2 - Lyng, R.
A2 - Bennedsen, J.
A2 - Bettaieb, L.
A2 - Topping, A.
A2 - Malmqvist, J.
A2 - Byström, F.
PB - Chalmers University of Technology
CY - Gothenburg
T2 - 21st International CDIO Conference
Y2 - 2 June 2025 through 5 June 2025
ER -