The United Nations Sustainable Development Goals (UN SDGs) are the focus for a Research Experience for Teachers (RET) Site in Engineering at X University. The relevant and meaningful contexts of the SDGs allow middle and high school teachers and their students to easily make connections between research in a university lab setting to Science, Technology, Engineering, and Math (STEM) concepts in their classroom. Lesson plans inspired by the UN SDGs research experience were developed as an “integrated STEM” problem solving activity by each of the RET teachers. Ten (10) teachers comprising of both pre-service and in-service middle or high school teachers have participated in each cohort over the two years of the NSF RET grant thus far. Six weeks of authentic summer research takes place in 5 different faculty labs at X University under the mentorship of faculty and their graduate students or postdoc. Examples of the research projects include “Photocatalysis for Clean Energy and Environment,” “Genetically Engineering Plasmid DNA molecules to address Tuberculosis Antibiotic Resistance,” and “New Water-Based Technology for Plastic Recycling.” RET participants also attend a weekly coffee session to help guide the teachers through the research process and a weekly ½-day professional development (PD) session to translate the research experience into a classroom lesson plan that aligns to state standards, as well as evidence-backed curriculum design and teaching strategies. Teacher cohort building and community is fostered through group lunches and additional activities (e.g., coordinated lab visits, behind the scenes tour of a local science museum, and industry panel). For evaluation of the RET program, pre/post-surveys measured the teacher’s self-reported ability, confidence, understanding, and frequency of use of the Engineering Design Process (EDP), Integrated STEM, and the UN Sustainable Development Goals. Formative assessment was conducted throughout the summer on various aspects of the RET through surveys and regular check-ins with the teachers. At the end of the summer, focus groups were conducted by an external evaluator for both the teacher participants and the research mentors. Both teachers and mentors declared the program was well planned and executed. The teachers developed close bonds and connections, learned a lot from each other, had meaningful research experiences, and developed a sense of community. The research mentors reported that the teachers provided useful research contributions, were enthusiastic about the research, had genuine lab experiences, developed professional skills, and built good community connections. Areas for improvement included clear expectations for everyone, reducing steep learning curves, and consistency of mentoring across the labs. The RET program continues into the academic year with occasional meetings to report on the implementation of their research-inspired lesson plan in their classroom. The RET participants share that they are bringing in the “real world” relevance to their students with an integrated STEM lens (e.g., climate change and UN SDGs) and that they refer back to their own lab experiences (e.g., importance of measuring chemicals accurately). The research experience has made several positive impacts on the teacher participants that also benefit their students.
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The Mentoring Network of K-5 Educators and Engineering Researchers in an RET
Elementary school is the first opportunity most students have to learn about STEM; however, elementary teachers are sometimes the least confident and prepared to teach STEM concepts and practices. Research Experience for Teachers (RET) programs are an established form of K-12 teacher professional development in which teachers are invited to work as members of a laboratory research team to increase their enthusiasm, knowledge and experience in STEM fields. The Engineering for Biology: Multidisciplinary Research Experiences for Teachers (MRET) of Elementary Grades was a 7-week summer program in which teachers were embedded as contributing members of engineering laboratory research teams and was established with the goals of (1) increasing teacher knowledge of STEM concepts and practices, (2) fostering mentoring relationships among researchers and teachers in each laboratory, and (3) guiding the translation of the teachers’ laboratory experience into the classroom through the development of STEM learning units. This exploratory study focuses on the second goal, and involves the use of developmental network theory to discriminate mentoring among participants within the summer 2017 and 2018 cycles of MRET. Using data collected in daily observations as well as daily activity and conversation logs submitted by all participants during the lab experience, post participation surveys, and post program semi structured interviews, we have characterized a network of mentoring that existed within the lab portion of MRET as being multidirectional and potentially beneficial to all members, including researchers as well as teachers. This finding challenges the currently accepted assumption that teachers are the primary beneficiaries of mentoring within RET programs. If demonstrated to be appropriate and transferrable to the RET context, such a perspective could enhance our understanding of the experience and be used for maximizing the outcomes for all participants.
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- Award ID(s):
- 1711543
- PAR ID:
- 10142792
- Date Published:
- Journal Name:
- 2019 ASEE Annual Conference & Exposition
- Format(s):
- Medium: X
- Sponsoring Org:
- National Science Foundation
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Research Experiences for Teachers (RET) as teacher professional development strive to increase teachers’ identity as science educators through authentic experiences in scientific research teams (EEC-1711543). MRET is a NSF-funded RET in its third year of embedding K-5 teachers in engineering laboratory research teams. Historically, most RET sites focus on secondary (6-12) teachers as participants, leveraging their content knowledge as they must have significant college level coursework and often a degree in the subject taught. Elementary teacher preparation has a broader scope; primary teachers require basic proficiency in all subject areas, creating a unique challenge for MRET in finding common ground among participating researchers and teachers. This paper presents our process of developing and employing badges to ensure the time elementary teachers and university scientists spend together in the laboratory is productive in both accomplishing the work of the lab and in contributing to the desired professional growth outcomes for the teachers. A key component in finding this balance has been the construction of a micro-certification framework based upon the Next Generation Science Standards (NGSS) science and engineering practices, and specific skills and proficiencies teachers are expected to demonstrate as laboratory researchers. This framework has been translated into MRET badges, loosely based on the structures of Boy Scout badges and digital micro certifications, that teachers may earn through a process of learning about a topic or skill, practicing it, then demonstrating their learning to a member of the MRET team. MRET badges have been enthusiastically received by both teachers and scientists as a valuable form of scaffolding of the research experience and as an aid to direct teacher activities within the lab in circumstances where they may otherwise have unstructured time. Because badges are tied to the NGSS science and engineering practices, they serve as a bridge uniting the work of the research labs and teacher’s elementary curriculum.more » « less
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In this paper we describe a joint Research Experience for Undergraduates (REU) and Research Experience for Teachers (RET) program focused on energy and sustainability topics within a Materials Science and Engineering program at a public university. This program brought ten undergraduate science and engineering students and five local middle and high school teachers on campus for an 8-week research experiences working with different lab groups. Given the relatively small number of participants, we chose qualitative interviews as our primary source of data for assessing the effectiveness of this program. The participants identified numerous positive aspects of participating in the summer research program. Students appreciated the sense of community they developed with both the other participants in the research program and the other members of their lab groups. Although most of the participants did not report the summer research experience as having a strong influence on their decisions to pursue graduate school or careers involving research, they did report both being more confident in their ability to be successful as a researcher and appreciating the opportunity to learn more about the practice of engineering research in an academic setting. For the teachers involved in the program we describe how participation influenced their leadership, perceptions of adoption educational innovations, and willingness to provide more opportunities to engage their students in authentic STEM research. The participants also provided several recommendations for improvement to the summer research program. For the students, these included more materials in advance and a more streamlined onboarding process to allow them to get up to speed on their projects more quickly, consistent access to their supervisors, and work that is intellectually challenging. Suggestion from the teacher participants for improvement mostly involved requests for more guidance on how to incorporate what they were learning in their research into lessons for their classrooms. By describing this program and the successes and challenges encountered by the participants and organizers, we intend to help others considering implementing REU/RET programs or other summer research experiences to design and implement successful programs.more » « less
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Research Experience for Teachers (RET) programs have been placing K-12 teachers in university research labs for almost three decades (Pop et al., 2010). However, the long-term impacts are rarely explored. This paper summarizes data from a survey study of 135/158 teachers (88% response rate) who participated in Stanford University’s RET programs between 2005 and 2017. The purpose of the study was to gauge the lasting impact of RET, if any, on teacher retention and classroom and professional practices. The data strongly suggest that participants gain long-lasting personal and professional benefits from participation--value that seems to be especially magnified for mid- to late-career teachers who are well established in their teaching practices but committed to continuous improvement. Furthermore, if the self-reports are accurate, these results would presumably also accrue to teachers’ students. Findings are attributed to the efficacy of the RET model. The authors argue for a nationwide evaluation of the efficacy of RET for teacher retention and professional development.more » « less
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Due to the COVID-19 crisis preventing face-to-face interaction, three National Science Foundation (NSF)-funded centers employed a virtual/remote format for their summer Research Experiences for Teachers (RET) Programs, reaching K-12 STEM teachers across the country. Teachers participated virtually from four different states by joining engineering research teams from four different universities in three different RET programs. Lab experiences depended on the nature of the research and institution-specific guidelines for in-lab efforts, resulting in some teachers conducting lab experiments with materials sent directly to their homes, some completing their experience fully online, and some completing portions of lab work in person on campus. Each teacher developed an engineering lesson plan based on the corresponding center’s research to be implemented either in person or virtually during the 2020-2021 academic school year. Research posters, created with support from graduate student and faculty mentors, were presented to industry partners, education partners, center members, and the NSF. Support for the teachers as they implement lessons, present posters, and disseminate their developed curricula, has continued throughout the year. Common survey and interview/focus group protocols, previously designed specifically for measuring the impact of engineering education programs, were adapted and used to separately evaluate each of the three virtual programs. Strengths and suggested areas of improvement will be explored and discussed to inform future use of the common evaluation instruments. Additionally, preliminary results, highlighting general successes and challenges of shifting RET programming to a virtual/remote format across the three centers, will be discussed.more » « less
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