ABSTRACT
The United States’ Next Generation Science Standards (NGSS) elevate engineering design to the same stature as scientific inquiry, calling on science teachers to engage students in engineering practices to solve real-world problems. In response, researchers and curriculum developers designed and studied Virtual Engineering Internships (VEIs) to engage students in engineering and science practices outlined by the NGSS, and alleviate some of the logistical and conceptual burden for teachers unfamiliar with engineering instruction. Nevertheless, the VEIs still require striking shifts in the way teaching and learning happens in middle school science classrooms. In this exploratory study we sought to understand whether and how teachers participating in a curriculum pilot project (n = 26) interacted with the VEIs in ways that helped them carry out pedagogical shifts called for by the NGSS, and to identify curricular features that may have supported these shifts. Findings suggest that teachers leveraged and modified the VEIs to support student engagement in engineering practices and real-world problem-solving, which suggests the potential of the curriculum to catalyse deep pedagogical shifts called for by the NGSS. From this analysis, we propose a set of curriculum design features that can support teachers in implementing ambitious engineering curricula in diverse classroom contexts.
Acknowledgements
This material is based upon work supported by the National Science Foundation under Grant No. 1417939. Any opinions, findings, and conclusions or recommendations expressed in this material are those of the authors and do not necessarily reflect the views of the National Science Foundation.
Disclosure statement
No potential conflict of interest was reported by the author(s).
Data availability
De-identified data will be made available upon request, and in accordance with the IRB protocol.
Notes
1 The NRC Framework and NGSS outline three components of engineering design as follows: (a) defining and delimiting engineering problems in terms of criteria and constraints, (b) designing possible solutions, and (c) optimising the design solution (NGSS Lead States, Citation2013; NRC, Citation2012a).
2 There is not a one-to-one correspondence between the instructional phases of VEIs and each of the NRC Framework and NGSS’ three components of engineering design. Instead, students engage in different components throughout the VEIs.
3 While not yet implemented in published units, a learning analytics model that analyses students’ digital log files is being developed to provide teachers with more insight into students’ design processes (Montgomery et al., Citation2020). This type of information would allow teachers to more easily evaluate how systematically students iterate.