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1. Teacher Self-efficacy During Professional Development for Game Design and Unity

   https://doi.org/10.1145/3478432.3499039  

   Hodges, Charles B. ; Akcaoglu, Mete ; Allen, Andrew ; Doğan, Selçuk ( March 2022 , Proceedings of the 53rd ACM Technical Symposium on Computer Science Education)

   Teacher self-efficacy (SE) has been observed to be an 'important construct for Computer Science (CS) teachers' professional development because it can predict both teaching behaviors as well as student outcomes" [1]. The purpose of the present study was to investigate teacher CS SE during a two-year federally funded professional development (PD) and curriculum development project for middle school teachers incorporating game-design and the Unity development platform. The research question investigated is: How does teacher self-efficacy for teaching computer science via game design with the Unity game development platform change during a year-long PD program? Investigations of teacher SE for teaching CS have resulted in some surprising results. For example, it has been reported that - There were no differences in self-efficacy based on teachers' overall level of experience, despite previous findings that teacher self-efficacy is related to amount of experience" and "no differences in self-efficacy related to the teachers' own level of experience with CS" [2], thus further study of CS teacher SE is warranted. Participants in this study were six middle school teachers from four middle schools in the southeastern United States. They participated in a year-long PD program learning the Unity game development platform, elements of game design,more »and foundations of learner motivation. Guided reflective journaling was used to track the teachers' SE during the first year of the project. Teachers completed journal prompts at four intervals. Prompts consisted of questions like "How do you currently feel about your ability to facilitate student learning with Unity?" and "Are you confident that you can implement the materials the way the project team has planned for them to be implemented?" Prior to beginning the project participants expressed confidence in being able to facilitate student learning after participating in the planned professional development, but there was some uneasiness about learning and using Unity. From a SE perspective their responses make sense, as all of the participants are experienced teachers and should have confidence in their general ability to teach. However, since Unity is a new programming environment for all of the teachers, they did not have the prior experience necessary to have a high degree of confidence that they could successfully use it with their students.« less
2. Engagement in Practice: Lessons Learned Partnering with Science Educators and Local Engineers in Rural Schools

   Lesko, H. L. ; Grohs, J. R. ; Matusovich, H. M. ; Kirk, G. R. ; Carrico, C. ; van Montfrans, V. ; Gillen, A. L. ; Paradise, T. ; Blackowski, S. A. ; Baum, L. M. ( June 2018 , ASEE Annual Conference proceedings)

   Our NSF-funded ITEST project focuses on the collaborative design, implementation, and study of recurrent hands-on engineering activities with middle school youth in three rural communities in or near Appalachia. To achieve this aim, our team of faculty and graduate students partner with school educators and industry experts embedded in students’ local communities to collectively develop curriculum to aim at teacher-identified science standard and facilitate regular in-class interventions throughout the academic year. Leveraging local expertise is especially critical in this project because family pressures, cultural milieu, and preference for local, stable jobs play considerable roles in how Appalachian youth choose possible careers. Our partner communities have voluntarily opted to participate with us in a shared implementation-research program and as our project unfolds we are responsive to community-identified needs and preferences while maintaining the research program’s integrity. Our primary focus has been working to incorporate hands-on activities into science classrooms aimed at state science standards in recognition of the demands placed on teachers to align classroom time with state standards and associated standardized achievement tests. Our focus on serving diverse communities while being attentive to relevant research such as the preference for local, stable jobs attention to cultural relevance led us tomore »reach out to advanced manufacturing facilities based in the target communities in order to enhance the connection students and teachers feel to local engineers. Each manufacturer has committed to designating several employees (engineers) to co-facilitate interventions six times each academic year. Launching our project has involved coordination across stakeholder groups to understand distinct values, goals, strengths and needs. In the first academic year, we are working with 9 different 6th grade science teachers across 7 schools in 3 counties. Co-facilitating in the classroom are representatives from our project team, graduate student volunteers from across the college of engineering, and volunteering engineers from our three industry partners. Developing this multi-stakeholder partnership has involved discussions and approvals across both school systems (e.g., superintendents, STEM coordinators, teachers) and our industry partners (e.g., managers, HR staff, volunteering engineers). The aim of this engagement-in-practice paper is to explore our lessons learned in navigating the day-to-day challenges of (1) developing and facilitating curriculum at the intersection of science standards, hands-on activities, cultural relevancy, and engineering thinking, (2) collaborating with volunteers from our industry partners and within our own college of engineering in order to deliver content in every science class of our 9 6th grade teachers one full school day/month, and (3) adapting to emergent needs that arise due to school and division differences (e.g., logistics of scheduling and curriculum pacing), community differences across our three counties (e.g., available resources in schools), and partner constraints.« less
3. Insights from the First Two Years of a Project Partnering Middle School Teachers with Industry to Bring Engineering to the Science Classroom

   Gillen, A. L. ; Grohs, J. R. ; Matusovich, H. M. ; Kirk, G. R. ; Lesko, H. L. ; Carrico, C. ( May 2019 , ASEE Annual Conference proceedings)

   Barriers to broadening participation in engineering to rural and Appalachian youth include misalignment with family and community values, lack of opportunities, and community misperceptions of engineering. While single interventions are unlikely to stimulate change in these areas, more sustainable interventions that are co-designed with local relevance appear promising. Through our NSF ITEST project, we test the waters of this intervention model through partnership with school systems and engineering industry to implement a series of engineering-themed, standards-aligned lessons for the middle school science classroom. Our mixed methods approach includes collection of interview and survey data from administrators, teachers, engineers, and university affiliates as well as observation and student data from the classroom. We have utilized theory from learning science and organizational collaboration to structure and inform our analysis and explore the impact of our project. The research is guided by the following questions: RQ 1: How do participants conceptualize engineering careers? How and why do such perceptions shift throughout the project? RQ 2: What elements of the targeted intervention affect student motivation towards engineering careers specifically with regard to developing competencies and ability beliefs regarding engineering? RQ 3: How can strategic collaboration between K12 and industry promote a shift in teacher’smore »conceptions of engineers and increased self-efficacy in building and delivering engineering curriculum? RQ 4: How do stakeholder characteristics, perceptions, and dynamics affect the likelihood of sustainability in strategic collaborations between K12 and industry stakeholders? How do prevailing institutional and collaborative conditions mediate sustainability? In year one, we involved nine 6th grade teachers, three engineering companies, and over 500 students. In year two, we expanded to include 7th grade teachers in our partner schools and the new students moving up to 6th grade. Lessons aligned with students' everyday experiences and connected to industry. For example, students created bouncy balls and tested their effectiveness on materials produced from partner manufacturing facilities. From preliminary analysis of data collected in the first two years of the project (e.g, the Draw an Engineer Test and teacher interviews), we have begun to see evidence of positive student and teacher impact. Additionally, our application of collaborative theory to the investigation of stakeholder perceptions of the project has revealed implications for partnering with school systems and engineering industry. For example, key individuals at each organization may serve as important conduits for program communication and collaborative work.« less
4. Integrating Professional Mentorship with a 3D-Printing Curriculum to Help Rural Youth Forge STEM Career Connections.

   Bhaduri, S. ( July 2021 , 2021 ASEE Virtual Annual Conference.)

   Economically disadvantaged youth residing in mountain tourist communities represent an important and understudied rural population. These communities typically include a large percentage of children that are English language learners. Our NSF STEM Career Connections project, A Model for Preparing Economically-Disadvantaged Rural Youth for the Future STEM Workplace, investigates strategies that help middle school youth in these communities to envision a broader range of workforce opportunities, especially in STEM and computing careers. This poster highlights the initial findings of an innovative model that involves working with local schools and community partners to support the integration of local career contexts, engineering phenomena, 3D printing technologies, career connections, and mentorship into formal educational experiences to motivate and prepare rural youth for future STEM careers. We focus on select classrooms at two middle schools and describe the implementation of a novel 3D printing curriculum during the 2020-2021 school-year. Two STEM teachers implemented the five-week curriculum with approximately 300 students per quarter. To create a rich inquiry-driven learning environment, the curriculum uses an instructional design approach called storylining. This approach is intended to promote coherence, relevance, and meaning from the students’ perspectives by using students’ questions to drive investigations and lessons. Students worked towards answeringmore »the question: “How can we support animals with physical disabilities so they can perform daily activities independently?” Students engaged in the engineering design process by defining, developing, and optimizing solutions to develop and print prosthetic limbs for animals with disabilities using 3D modeling, a unique augmented reality application, and 3D printing. In order to embed connections to STEM careers and career pathways, some students received mentorship and guidance from local STEM professionals who work in related fields. This poster will describe the curriculum and its implementation across two quarters at two middle schools in the US rural mountain west, as well as the impact on students’ interest in STEM and computing careers. During the first quarter students engaged in the 3D printing curriculum, but did not have access to the STEM career and career pathway connections mentorship piece. During the second quarter, the project established a partnership with a local STEM business -- a medical research institute that utilizes 3D printing and scanning for creating human surgical devices and procedures -- to provide mentorship to the students. Volunteers from this institute served as ongoing mentors for the students in each classroom during the second quarter. The STEM mentors guided students through the process of designing, testing, and optimizing their 3D models and 3D printed prosthetics, providing insights into how students’ learning directly applies to the medical industry. Different forms of student data such as cognitive interviews and pre/post STEM interest and spatial thinking surveys were collected and analyzed to understand the benefits of the career connections mentorship component. Preliminary findings suggest the relationship between local STEM businesses and students is important to motivate youth from rural areas to see themselves being successful in STEM careers and helping them to realize the benefits of engaging with emerging engineering technologies.« less
5. Implementing design thinking into summer camp experience for high school women in materials science and engineering.

   Tyler, K. ; Johnson, N. ; Krogstad, J.A. ( June 2017 , ASEE Annual Conference proceedings)

   Although women make up a significant portion of the college educated population, there remains a sizable gap between the number of men and women pursuing degrees and careers in science, technology, engineering and math (STEM) fields. This gender gap begins at middle school and widens considerably in the later high school years. One major factor for this gap is the lack of belonging women can feel towards engineering. As one approach to developing and improving this sense of belonging, we focused on improving students’ comprehension of engineering topics during a weeklong materials science and engineering summer camp for high school girls. We took a two-prong approach: a unifying paradigm and a design project. The purpose of this was to allow for transfer of learning throughout the week, allowing the students to build and showcase their own comprehension. The paradigm, the materials science tetrahedron, provided cohesion throughout an otherwise broad and seemingly disconnected field, while the design project allowed for the students to implement what they learned during the week in a group setting. This approach concomitantly enhances confidence and their sense of belonging within engineering. In this paper we highlight lessons learned from incorporating this approach into our program, includingmore »our perception of its effectiveness and feedback from the girls. The preliminary results from this work show that this summer camp is a unique and well-suited opportunity to study how comprehension can engender a sense of belonging amongst female students with the ultimate goal of closing the gender gap in engineering fields.« less