High School Student Perceptions of the Utility of the Engineering Design Process: Creating Opportunities to Engage in Engineering Practices and Apply Math and Science Content

2014 ◽  
Vol 23 (6) ◽  
pp. 705-720 ◽  
Author(s):  
Leema Berland ◽  
Rebecca Steingut ◽  
Pat Ko
2019 ◽  
Vol 81 (5) ◽  
pp. 340-350
Author(s):  
Courtney Goode

Given that science and engineering practices are a large focus in the Next Generation Science Standards, biology teachers need to find ways to incorporate the engineering design process into their curriculum. To address this need, I present a lesson that allows for student collaboration in designing and developing a solution to a global problem resulting from overfishing and our use of unsustainable fishing practices. This lesson also demonstrates to students that larger, global issues that seem insurmountable to solve can be broken down into smaller, more manageable pieces. My approach involves having students research a problem related to sustainable fishing practices and design a physical model of a solution to combat their specific issue. Peer review is then used in order to help students revise and edit their models during the lesson in response to the peer feedback received. The lesson will culminate in a presentation to the class about the biological, social, and economic ramifications of both their assigned problem and a potential solution.


2021 ◽  
Vol 8 (1) ◽  
Author(s):  
Gillian H. Roehrig ◽  
Emily A. Dare ◽  
Elizabeth Ring-Whalen ◽  
Jeanna R. Wieselmann

Abstract Background Few tools or rubrics exist to assess the quality of integrated STEM curricula, and existing tools focus on checklists of characteristics of integrated STEM. While such instruments provide important information about the presence and quality of certain curricular components, they do not assess the level and nature of integration of the curriculum as a whole. Thus, this study explores the development of a process focused to understand the nature of integration within a STEM curriculum unit. Findings A conceptual flow graphic (CFG) was constructed for 50 integrated STEM curriculum units. Patterns in the nature of the interdisciplinary connections were used to categorize and understand the nature of integration and curricular coherence within each unit. The units formed four broad types of integrated STEM curricula: (i) coherent science unit with loosely connected engineering design challenge (EDC), (ii) engineering design-focused unit with limited connections to science content, (iii) engineering design unit with science content as context, and (iv) integrated and coherent STEM units. All physical science units were in the integrated and coherent category with strong conceptual integration between the main science concepts and the EDC. Curricula based in the Earth and life sciences generally lacked conceptual integration between the science content and the EDC and relied on the engineering design process to provide a coherent storyline for the unit. Conclusions Our study shows that engineering practices can serve as a contextual integrator within a STEM unit. The utilization of an EDC also provides the potential for conceptual integration because engineering is grounded in the application of science and mathematics. Integrated STEM curricula that purposefully include science and mathematics concepts necessary to develop solutions to the EDC engage students in authentic engineering experiences and provide conceptual integration between the disciplines. However, the alignment of grade-level science standards with the EDC can be problematic, particularly in life science and Earth science. The CFG process provides a tool for determining the nature of integration between science and mathematics content and an EDC. These connections can be conceptual and/or contextual, as both forms of integration are appropriate depending on the instructional goals.


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