DuPage Children's Museum will enhance visitor engagement by incorporating current research on infant and toddler development to redesign two exhibits and develop an educational program for low-income caregivers. The museum will partner with two community-based organizations, Teen Parent Connection and Family Focus DuPage, to collaborate in the project and refer clients to participate in the educational programs. The museum will present twelve onsite sessions that will enable parents and caregivers to nurture an understanding of STEM fundamentals at the museum and at home for their young children. Participants will be given educational videos and take-home kits that correspond with the educational sessions. Project activities will also include training to help museum staff use the exhibits to further a visitor's learning experience. The museum will disseminate project results to other children's museums and early childhood educators and professionals.
The Lewis H. Latimer House Museum will develop a more cohesive education program that reflects both the museum's resources and the needs of local schools. The museum's deputy director and Tinkering Lab educator will work together to design a curriculum that meets current New York State and city standards, enabling the museum to more effectively serve schools in the community with object-based learning experiences. Packets of educational materials will be developed and made available for school teachers to download and use in their classrooms prior to and following visits to the museum. Target schools will be actively involved in the process of testing and utilizing the products. Project results will be shared with internal and external stakeholders to sustain long-term improvement and enhance institutional capacity.
The Massachusetts Audubon Society will develop, pilot, and implement an evaluation framework for nature-based STEM programming that serves K-12 students visiting its network of nature centers and museums. Working with an external consultant, the society will develop the framework comprised of a logic model and theory of change for fieldtrips, and develop a toolkit of evaluation data collection methodology suitable to various child development stages. The project team will design and conduct three professional development training seminars to help Massachusetts Audubon school educators develop a working understanding of the new evaluation framework for school programs and gain the skills necessary to support protocol implementation. This project will result in the development and adoption of a universal protocol to guide the collection, management, and reporting of education program evaluation data across the 19 nature centers and museums in the Massachusetts Audubon system.
Context
Engaging youth as partners in academic research projects offers many benefits for the youth and the research team. However, it is not always clear to researchers how to engage youth effectively to optimize the experience and maximize the impact.
Objective
This article provides practical recommendations to help researchers engage youth in meaningful ways in academic research, from initial planning to project completion. These general recommendations can be applied to all types of research methodologies, from community action-based research to highly technical designs.
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TEAM MEMBERS:
Lisa HawkeJacqueline RelihanJoshua MillerEmma McCannJessica RongKarleigh DarnaySamantha DochertyGloria ChaimJoanna Henderson
The summative evaluation documents and articulates what SCIENCES has improved or changed, and in what ways. The final design of the summative evaluation was based on findings from the front-end and formative evaluations, including using participatory evaluation techniques to engage community members in discussing their experience with the programs and assessment of community needs and assets at the close of the project.
The goal of the summative evaluation was to address discrete program impacts in the context of the project, as well as the cross-program impact of providing a thematically
Underrepresented minorities (URMs) represent 33% of the US college age population and this will continue to increase (1). In contrast, only 26% of college students are URMs. In the area of Science Technology, Engineering and Mathematics (STEM), only 15% of college students completing a STEM major are URMs (2). While there have been gains in the percent of Hispanic and Black/African Americans pursuing college degrees, the number of Native American college students remains alarmingly low. In 2013, Native Americans represented only 1% of entering college students and less than 50% finished their degree. Moreover, 1% of students pursuing advanced degrees in STEM-related fields are Native American/Alaska Native. With regards to high school graduation rates, the percent of Native American/Alaska Native students completing high school has decreased with only 51% of students completing high school in 2010 compared to 62 % and 68% for Black and Latino students respectively. While identifying ways to retain students from all underrepresented groups is important, developing programs targeting Native American students is crucial. In collaboration with the Hopi community, a three-week summer course for Native American high school students at Harvard was initiated in 2001. Within three years, the program expanded to include three additional Native American communities. 225 students participated in the program over a 10-year period; and 98% of those responding to the evaluation completed high school or obtained a GED and 98% entered two or four year colleges including 6 students who entered Harvard. This program was reinitiated in 2015 and we plan to build on the existing structure and content of this successful program. Specifically, in collaboration with two Native American communities, the goal of the program is 1) to increase participants’ knowledge of STEM disciplines and their relevance to issues in participants’ communities via a three week case-based summer course for Native American high school students; 2) to help enhance secondary school STEM education in Native American communities by providing opportunities for curriculum development and classroom enhancement for secondary school teachers in the participating Native American communities; and 3) to familiarize students with the college experience and application process and enhance their readiness for college through workshops, college courses and internships. Through these activities we hope to 1) increase the number of Native American students completing high school; 2) increase the number of Native American students applying and being accepted to college; 3) increase the number of Native American students pursuing STEM degrees and careers; 4) increase the perception among Native American students that attending and Ivy plus institution is attainable; 5) increase the feeling of empowerment that they can help their community by pursuing advanced degrees in STEM.
PUBLIC HEALTH RELEVANCE:
This proposal supports a summer program for high school students and teachers from Native American communities. The program goals are to encourage students to complete high school and prepare them for college and to also consider degrees in science, technology, engineering, and math.
The goals of this proposal are: 1) to provide opportunities for underrepresented students to consider careers in basic or clinical research by exciting them through an educational Citizen Science research project; 2) to provide teachers with professional development in science content and teaching skills using research projects as the infrastructure; and 3) to improve the environments and behaviors in early childcare and education settings related to healthy lifestyles across the state through HSTA students Citizen Science projects. The project will complement or enhance the training of a workforce to meet the nation’s biomedical, behavioral and clinical research needs. It will encourage interactive partnerships between biomedical and clinical researchers,in-service teachers and early childcare and education facilities to prevent obesity.
Specific Aim I is the Biomedical Summer Institute for Teachers led by university faculty. This component is a one week university based component. The focus is to enhance teacher knowledge of biomedical characteristics and problems associated with childhood obesity, simple statistics, ethics and HIPAA compliance, and the principles of Citizen Science using Community Based Participatory Research (CBPR). The teachers, together with the university faculty and staff, will develop the curriculum and activities for Specific Aim II.
Specific Aim II is the Biomedical Summer Institute for Students, led by HSTA teachers guided by university faculty. This experience will expose 11th grade HSTA students to the biomedical characteristics and problems associated with obesity with a focus on early childhood. Students will be trained on Key 2 a Healthy Start, which aims to improve nutrition and physical activity best practices, policies and environments in West Virginia’s early child care and education programs. The students will develop a meaningful project related to childhood obesity and an aspect of its prevention so that the summer institute bridges seamlessly into Specific Aim III.
Specific Aim III is the Community Based After School Club Experiences. The students and teachers from the summer experience will lead additional interested 9th–12th grade students in their clubs to examine their communities and to engage community members in conducting public health intervention research in topics surrounding childhood obesity prevention through Citizen Science. Students and teachers will work collaboratively with the Key 2 a Healthy Start team on community projects that will be focused on providing on-going technical assistance that will ultimately move the early childcare settings towards achieving best practices related to nutrition and physical activity in young children.
The goal of our research is to identify strengths and weaknesses of high school level science fair and improvements that might enhance learning outcomes based on empirical assessment of student experiences. We use the web-based data collection program REDCap to implement anonymous and voluntary surveys about science fair experiences with two independent groups -- high school students who recently competed in the Dallas Regional Science and Engineering Fair and post high school students (undergraduates, 1st year medical students, and 1st year biomedical graduate students) on STEM education
Research that seeks to understand classroom interactions often relies on video recordings of classrooms so that researchers can document and analyze what teachers and students are doing in the learning environment. When studies are large scale, this analysis is challenging in part because it is time-consuming to review and code large quantities of video. For example, hundreds of hours of videotaped interaction between students working in an after-school program for advancing computational thinking and engineering learning for Latino/a students. This project is exploring the use of computer-assisted methods for video analysis to support manual coding by researchers. The project is adapting procedures used for computer-aided diagnosis systems for medical systems. The computer-assisted process creates summaries that can then be used by researchers to identify critical events and to describe patterns of activities in the classroom such as students talking to each other or writing during a small group project. Creating the summaries requires analyzing video for facial recognition, motion, color and object identification. The project will investigate what parts of student participation and teaching can be analyzed using computer-assisted video analysis. This project is supported by NSF's EHR Core Research (ECR) program, the STEM+C program and the AISL program. The ECR program emphasizes fundamental STEM education research that generates foundational knowledge in the field. The project is funded by the STEM+Computing program, which seeks to address emerging challenges in computational STEM areas through the applied integration of computational thinking and computing activities within disciplinary STEM teaching and learning in early childhood education through high school (preK-12). As part of its overall strategy to enhance learning in informal environments, the Advancing Informal STEM Learning (AISL) program seeks to advance new approaches to, and evidence-based understanding of, the design and development of STEM learning in informal environments. This includes providing multiple pathways for broadening access to and engagement in STEM learning experiences, advancing innovative research on and assessment of STEM learning in informal environments, and developing understandings of deeper learning by participants.
The video analysis systems will provide video summarizations for specific activities which will allow researchers to use these results to quantify student participation and document teaching practices that support student learning. This will support the analysis of large volumes of video data that are often time-consuming to analyze. The video analysis system will identify objects in the scene and then use measures of distances between objects and other tracking methods to code different activities (e.g., typing, talking, interaction between the student and a facilitator). The two groups of research questions are as follows. (1) How can human review of digital videos benefit from computer-assisted video analysis methods? Which aspects of video summarization (e.g., detected activities) can help reduce the time it takes to review the videos? Beyond audio analytics, what types of future research in video summarization can help reduce the time that it takes to review videos? (2) How can we quantify student participation using computer-assisted video analysis methods? What aspects of student participation can be accurately measures by computer-assisted video analysis methods? The video to be used for this study is drawn from a project focused on engineering and computational thinking learning for Latino/a students in an after-school setting. Hundreds of hours of video are available to be reviewed and analyzed to design and refine the system. The resulting coding will also help document patterns of engagement in the learning environment.
This project is funded by the National Science Foundation's (NSF's) Advancing Informal STEM Learning (AISL) program, which supports innovative research, approaches, and resources for use in a variety of learning settings.
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TEAM MEMBERS:
Marios PattichisSylvia Celedon-PattichisCarlos LopezLeiva
This Conference Paper was presented at the International Soceity for the Learning Sciences Confernece in June 2018. We summarize interviews with youth ages 9-15 about their failure mindsets, and if those midsets cross boundaries between learning environments.
Previous research on youth’s perceptions and reactions to failure established a view of failure as a negative, debilitating experience for youth, yet STEM and in particular making programs increasingly promote a pedagogy of failures as productive learning experiences. Looking to unpack perceptions of failure across contexts and
Making is a recent educational phenomenon that is increasingly occurring in schools and informal learning spaces around the world. In this paper we explore data from maker educators about their experiences with failure. We surveyed maker educators about how they view failure happening with youth in their formal and informal programs and how they respond. The results reveal some concrete strategies that seem to show promise for helping educators increase the likelihood that failure experiences for youth can lead to gains in learning and persistence.
This article summarizes a survey of formal