Through the semester-long engineering curricula, middle school students complete a series of contextualized challenges that integrate foundational mathematics and science, introduce advanced manufacturing tools (CAD, 3-D printing), and engage students in the engineering design process. Funded by a National Science Foundation (NSF) DRK12 grant, our project is in the process of scaling the curricula in a large urban school district. Over the previous two years, the project has enlisted two cohorts of engineering teachers to implement the curricula in nine middle schools. In addition to understanding whether and how the critical components of the curricula are implemented in diverse school settings, our research team’s fidelity of implementation research investigates contextual factors that help explain why teachers and students engaged with the curricula the way they do. For this line of inquiry, we draw upon the Factor Framework (Century and Cassata, 2014; Century et al. 2012), which provides a comprehensive set of potential factors known to influence implementation of educational innovations. The framework organizes these implementation factors into five categories: characteristics of the innovation, characteristics of individual users, characteristics of the organization, elements of the environment, and networks. After consulting this framework to identify potential factors likely to influence the implementation, we analyzed teacher interview and classroom observation data collected over the course of three semesters of implementation to describe the degree to which various contextual factors either facilitated or limited implementation. Our data indicate three categories of factors influencing implementation: characteristics of the curriculum, characteristics of users (teachers and students), and characteristics of organizations (district, schools). Characteristics of the curriculum that facilitated implementation included features of the curricula and professional development including the perceived effectiveness of the curricula, the adaptability of the curricula, and the degree to which professional learning sessions provided adequate preparation for implementation. Characteristics of teachers identified as facilitating implementation included pedagogical content knowledge, self-efficacy, resourcefulness, and organizational and time management skills. Teachers reported that student interest in the curriculum challenges and STEM, more generally, was another facilitating factor whereas, to varying degrees, disruptive student behavior and students’ lack of foundational mathematics skills were reported as limiting factors. Teachers highlighted specific technological challenges, such as software licensing issues, as limiting factors. Otherwise, we found that teachers generally had sufficient resources to implement the curricula including adequate physical space, technological tools, and supplies. Across teachers and schools, we found that, overall, supportive school and district leadership facilitated implementation. In spite of an overall high level of support in participating schools, we did identify school and district policies with implications for implementation including school-wide scheduling and disciplinary policies that limited instructional time, policies for assigning and moving students among elective courses, and district-wide expectations for assessment and teaching certain additional engineering activities. We believe the findings of this study will be of interest to other researchers and practitioners exploring how engineering education innovations unfold in diverse classrooms and the array of factors that may account for variations in implementation patterns.
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What shapes implementation of a school-based makerspace? Teachers as multilevel actors in STEM reforms
We investigate the factors that shape teachers’ implementation of a school STEM reform—the creation of a high-school makerspace. Educational reformers have increasing interest in making and makerspaces in schools. Prior research shows how factors shape reform at the classroom, school (organizational), and institutional levels, as well as across levels. However, most research on teachers tends to focus on classroom-level effects, which may not capture the full complexity of how they navigate multilevel reforms. We consider teachers’ decision-making from an ecological perspective to investigate what shapes their implementation efforts, using observational and interview data collected over 2 years in a large comprehensive high school.
We find teachers’ efforts are shaped by four “distances”—or spaces teachers traversed, physically and conceptually—related to skillsets and distributed expertise, physical space, disciplinary learning, and structural factors. The distances operate as a constellation of factors—independently identifiable, co-operatively manifesting—to shape implementation. We position teacher deliberations and decision-making as portals into the forms of organizational and institutional supports offered in multilevel reforms.
The paper contributes insights into makerspace implementation in schools, adding to the emerging literature on how making can transform STEM learning experiences for students. We conclude that teachers’ decision-making around multilevel implementations can inform our understanding of how makerspaces are implemented and their impact on students’ experiences, as well as how seeing teachers as multilevel actors can offer new insights into reform dynamics writ large. We offer implications for makerspaces in schools, as well as methodological and theoretical considerations for how organizations and institutions can better support teachers as agents of STEM reform.
- PAR ID:
- 10393609
- Publisher / Repository:
- Springer Science + Business Media
- Date Published:
- Journal Name:
- International Journal of STEM Education
- Volume:
- 10
- Issue:
- 1
- ISSN:
- 2196-7822
- Format(s):
- Medium: X
- Sponsoring Org:
- National Science Foundation
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Introduction Elementary teachers face many challenges when including reform-based science instruction in their classrooms, and some teachers have chosen to enhance their science instruction by introducing students to citizen science (CS) projects. When CS projects are incorporated in formal school settings, students have an opportunity to engage in real-world projects as they collect and make sense of data, yet relatively few CS projects offer substantial guidance for teachers seeking to implement the projects, placing a heavy burden on teacher learning.
Methods Framed in theory on teacher relationships with curricula, we prepared science standards-aligned educative support materials for two CS projects. We present convergent mixed methods research that examines two teachers’ contrasting approaches to including school-based citizen science (SBCS) in their fifth-grade classrooms, each using support materials for one of the two CS projects. Both are veteran teachers at under-resourced Title 1 (an indicator of the high percentage of the students identified as economically disadvantaged) rural schools in the southeastern United States. We document the teachers’ interpretations and use of SBCS materials for the CS projects with data from classroom observations, instructional logs, teacher interviews, and student focus groups.
Results One teacher adapted the materials to include scaffolding to position students for success in data collection and analysis. In contrast, the second teacher adapted the SBCS support materials to maintain a teacher-centered approach to instruction, identifying perceptions of students’ limited abilities and limited instructional time as constraining factors.
Discussion We discuss the intersection of CS projects in formal education and opportunities for engaging students in authentic science data collection, analysis, and sense-making. The two teachers’ stories identify the influences of school context and the need for teacher support to encourage elementary teachers’ use of SBCS instruction to supplement their science instruction.
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Recent discussions have focused on rich STEM learning opportunities and various equity challenges in setting up and researching out-of-school makerspaces and activities. In turning to school classrooms, we want to understand the critical practices that teachers employ in broadening and deepening access to making. In this paper, we investigate two high school teachers’ approaches in implementing the Exploring Computer Science curriculum using a novel 8-week, electronic textiles unit where students designed wearable textile projects with a microcontroller, sensors and LED lights. Drawing on observations and interviews with teachers and students, we share emergent practices that teachers used in transforming their classrooms into a makerspace, including modeling in-progress artifacts, valuing expertise from students, and promoting connections in personalized work. We discuss in which ways these teaching practices succeeded in broadening access to making while deepening participation in computing and establishing home-school connections.more » « less
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Abstract Background Engineering education has observed considerable growth in academic makerspaces with initial data indicating significant potential for makerspaces to support learning.
Purpose/Hypothesis Given gender disparities in engineering as a professional community of practice (CoP) and indications for makerspaces as sites for learning, educational researchers need to forge a better understanding of women's pathways into makerspaces, including the barriers that inhibit and the catalysts that broaden participation.
Design/Method This study employed qualitative interviews with 20 women students who were identified as makers in order to gain insights into the characteristics of their pathways into university makerspaces.
Results Using grounded theory development, four major aspects of students' pathways emerged: (1) early forms of apprenticeship through mentors; (2) overcoming and resisting limiting gendered expectations imposed by others in early experiences in unfamiliar makerspace CoPs, resulting in failed articulations of related communities; (3) successful articulations of community grounded in making‐centered coursework and personal passions; and (4) relationships in college that expanded access, leadership, and visibility toward fuller participation in makerspace CoPs.
Conclusion Educational interventions to broaden women's participation in makerspaces must be multipronged and attend to early childhood experiences, include supportive opportunities for women to participate in making in K‐12 and university curricula, expand definitions of making to legitimize the arts and crafts as part of design, and create apprenticeship opportunities for women to mentor women in makerspaces. We must change the narrative of who makers are, what making is, and who belongs in makerspaces to reduce barriers and create inclusive making communities.
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Abstract Data‐art inquiry is an arts‐integrated approach to data literacy learning that reflects the multidisciplinary nature of data literacy not often taught in school contexts. By layering critical reflection over conventional data inquiry processes, and by supporting creative expression about data, data‐art inquiry can support students' informal inference‐making by revealing the role of context in shaping the meaning of data, and encouraging consideration of the personal and social relevance of data. Data‐art inquiry additionally creates alternative entry points into data literacy by building on learners' non‐STEM interests. Supported by technology, it can provide accessible tools for students to reflect on and communicate about data in ways that can impact broader audiences. However, data‐art inquiry instruction faces many barriers to classroom implementation, particularly given the tendency for schools to structure learning with disciplinary silos, and to unequally prioritize mathematics and the arts. To explore the potential of data‐art inquiry in classroom contexts, we partnered with arts and mathematics teachers to co‐design and implement data‐art inquiry units. We implemented the units in four school contexts that differed in terms of the student population served, their curriculum priorities, and their technology infrastructure. We reflect on participant interviews, written reflections, and classroom data, to identify synergies and tensions between data literacy, technology, and the arts. Our findings highlight how contexts of implementation shape the possibilities and limitations for data‐art inquiry learning. To take full advantage of the potential for data‐art inquiry, curriculum design should account for and build on the opportunities and constraints of classroom contexts.
Practitioner notes What is already known about this topic
Arts‐integrated instruction has underexplored potential for promoting students' data literacy, including their appreciation for the role of context and real‐world implications of data and for the personal and social relevance of data.
Arts‐integrated instruction is difficult to implement in school contexts that are constrained by disciplinary silos.
What this paper adds
Descriptions of four data‐art inquiry units, which take an arts‐integrated approach to data literacy.
Examples of the synergies and tensions observed between data literacy, technology, and the arts during classroom implementation in four different schools.
Reflections on the role of school contexts in shaping disciplinary synergies and tensions.
Implications for practice and/or policy
Arts‐integration offers opportunities for data literacy learning.
Consideration of the unique resources and constraints of classroom contexts is critical for fulfilling the promises of data‐art inquiry learning.
There is a need to develop school support specific to arts‐integrated data literacy instruction.
