built through the CAE exercise also opened channels for supporting one another andcollaborating on future projects addressing how to overcome the challenges that emerged withthe major themes. For instance, the challenge to better address student needs from the equitableinstruction theme inspired some of the CoP members to teach reflective learning practices tostudents through focus groups. Others are entertaining the idea of peer observation andevaluation protocols specifically addressing equitable teaching practices.Moving forward, this research study invites the need to examine each of the three themes thatemerged from the collaborative autoethnography in depth, especially considering the relatedsub-themes more closely in practice (Table 3
ofcontextualization to build foundational skills and indicate real-world relevance.II. ContextualizationPORPs aim to improve first-year student engagement by using faculty research slides tocontextualize recitation problems. Contextualization in engineering education links technicalcontent to real-world applications, helping students grasp abstract concepts while emphasizingengineering’s societal impact [17], [18]. This approach fosters technical competence andinformed decision-making in global, economic, environmental, and social contexts [18], [19].Engineering curricula often achieve this through case studies, industry examples, andinterdisciplinary projects, which highlight the connection between technical knowledge andreal-world challenges [20].While
principle, we cite supporting literature andfindings from our interviews with equity-oriented engineering instructors, and we provideillustrative examples of implementation in a variety of course contexts. We also highlight theinteractions of curriculum and instruction across principles. Before describing our principles of equity-centered engineering curriculum andinstruction, we provide a project overview and description of our development process.Describing our development process involves information on how we identified relevantsupporting literature for the principles and gathered examples of how to enact the principles fromengineering instructors. Following that overview, we present the six principles, including thesupporting literature
experience enhances their analytical and collaborative skills, preparing them for thedemands of the program. The Graduate Interdisciplinary Specialization (GIS) in Data-DrivenSustainable Energy Systems is the curricular component of the program. Consisting of sixcourses, the GIS includes a foundational sustainable energy course, a capstone on energyinnovation, and four elective courses selected from five thematic areas: (1) energy systemmodeling; (2) information systems; (3) energy policy, regulation, and economics; (4) energy-business modeling; and (5) energy technologies, components, and subsystems. The GIS allowstrainees to tailor their learning to align with their research interests and professional goals.2Beyond coursework, trainees participate