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Broadening participation in engineering needs to be different from filling the pipeline or national competitiveness. We should seek to empower students to use engineering knowledge and skills to create social change, address injustices, or develop problem-solving skills that can help transform lives. This study examined how migratory high school students developed beliefs about engineering’s capacity for social impact through participation in an activity where they learned how the engineering design process could be used to solve a need impacting agricultural workers. Specifically, we investigated how students' interest in engineering, their self-efficacy in applying engineering concepts, and the development of an identity as a future engineer influence the formation of their beliefs about their capacity to act purposefully and effectively using engineering practices. Migratory high school students represent an overlooked and underserved segment of students in U.S. schools. These students, often from Latinx backgrounds, remain underrepresented in engineering fields. To investigate the development of “engineering for social impact” among migratory high school students, we designed and implemented a culturally responsive and gamified engineering design activity. The activity aimed to connect engineering concepts to students’ cultural backgrounds and experiences while leveraging game-based learning elements to increase engagement. We administered pre- and post-surveys to measure changes in students’ engineering impact, interest, self-efficacy, and identity (n = 235). We used a multiple linear regression model to examine the relationships. Our results show that migratory students’ engineering interest and self-efficacy significantly supported the development of their belief that engineering could be a tool for social impact. Specifically, as students’ engineering interest increased, their perception that engineering could be used as a practice to address injustices significantly increased by 0.335 points. Similarly, as students’ engineering self-efficacy beliefs increased, that led to a significant increase of 0.346 points in their social impact beliefs. However, being recognized as someone who can do engineering (i.e., recognition beliefs) did not have a significant effect. The model explains approximately 46.7% of the variance in students’ beliefs about engineering as a tool for social impact. Our findings suggest that students’ engineering for social impact beliefs develop through experiences that enable them to see themselves as engineers and use engineering knowledge in meaningful ways. Our culturally responsive and gamified approach positively influenced students’ beliefs by fostering both interest and self-efficacy in engineering contexts. The results underscore the importance of creating learning environments and activities that not only spark interest in engineering but also build students’ confidence in their abilities to engage in engineering practices. For migratory Latinx high school students who face unique challenges in their educational journeys, cultivating engineering for social impact may be particularly crucial in garnering interest in the field. This study contributes to the growing body of research on the importance of connecting engineering to social and cultural context and provides insights into effective strategies for supporting underrepresented students in engineering. Future work should explore the longitudinal effects of such interventions and investigate additional factors that may influence the development of students’ social impact beliefs among migratory students. 

Mononuclear Fe(iii) complexes containing an antipyrine Schiff base ligand were prepared and fully characterized, demonstrating a planar tetradentate coordination geometry. The resulting complexes are active for HER with possible ligand cooperativity. 

Demonstration at AZCEC/AZCASE Annual State Conference, Phoenix, AZ 

We develop computing practices for neurodiverse learners. While many researchers in special education adopt a behavioral perspective, we leverage a neurodiversity perspective that is more widely accepted within the autism community itself. We report on an initial phase of a research-practice partnership with a pilot cohort of four middle school teachers with whom we are co-designing embodied musical practices using networked Internet of Things (IoT) wearables with embedded inertial measurement units (IMUs). Our culturally and epistemically diverse teaching fellows work with diverse student populations (Black, Brown, Native American, neurodivergent) at Title 1 schools. The neurodiversity perspective sensitizes our co-design to tactile, kinetic, sensory, and ensemble energies that overflow neurotypical learning modalities, which typically privilege screen- based interaction, cognitivism, and isolation. We find “wearable music” to be an inclusive, mobile, and mobilizing computing approach that foregrounds embodied interactions in fun and engaging group activities surfacing computational thinking (CT). In later phases of this research, our teaching fellows will run workshops for additional educators, scaling the curriculum for implementation and evaluation in many more classrooms. 

Slides associated with panel about ASU-NERC Partnership for Neurodiverse Computational Thinking and Telematic Embodied Learning.