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An ethical and effective engineering practice is inherently place-responsive and designs for a sustainable future. Engineering students must therefore be educated within a sustainable and sociotechnical paradigm. In the spring of 2022, the integrated engineering department of the University of San Diego offered a new photovoltaic solar energy course for junior and senior students. Informed by place-based pedagogies and culturally sustaining pedagogies, we designed the course to be relevant to the students' lived experiences by coupling the learning about the technical elements of solar energy with a focus on solar energy projects and sustainability on campus. Prior to running the course, we identified four potential new solar investment/upgrade projects for the university. We divided the class into four teams, with each team assigned to assess the feasibility of a solar project through (1) social, (2) technical, (3) economic, and (4) environmental analyses. Finally, the students integrated their findings and made recommendations to key university stakeholders about how to proceed with solar energy investments on campus. In this paper, we share the course project design, our findings from implementing it, and ideas for adapting it to other place-based sustainability learning experiences. [ABSTRACT FROM AUTHOR]

Community-partnered engineering projects provide a mechanism for cultivating the development of sociotechnical engineers prepared to design within diverse and complex cultural, environmental, social, and other contexts. During the 2021–2022 academic year, we guided three teams of senior undergraduate engineering students through year-long community-partnered projects for their required capstone design course, which instead typically features corporate/industry-sponsored projects. We analyzed end-of-semester reflections (both fall and spring semester) from each student using inductive thematic analysis to explore how they perceived their experiences. The themes that emerged from the student reflections, including connectivity, transdisciplinary, multiple stakeholders, sustainability, justice, and ethics, are all components of the sociotechnical engineering capabilities that we are working to develop in our students. We consider these findings encouraging, and suggestive that integrating community-partnered projects into engineering capstone design offerings is worthwhile and effective. However, our implementation was not without challenges, such as trying to force the projects to fit into a course structure and timeline developed to support corporate/industry-sponsored project teams, which was burdensome to the community-partnered project teams. In this paper, we highlight both the complexities and benefits of this approach and insights gained from student and instructor reflections. [ABSTRACT FROM AUTHOR]