The goal of the project is to research ways in which the teaching of basic computing skills can be integrated into after-school choral programs. The team will study how to adapt the interdisciplinary, computing + music activities developed to date in their NSF-funded Performamatics project with college-aged students to now introduce middle school-aged students to computing in an informal, after-school choral program. They will investigate how to leverage the universal appeal of music to help students who typically shy away from technical studies to gain a foothold in STEM (Science, Technology, Engineering, and Mathematics) by programming choral music. It is funded by the Advancing Informal STEM Learning (AISL) program, which 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 team will use a qualitative and quantitative, mixed-methods approach to study four research questions: (1) Can middle school-aged children follow the connections from singing to digitized sound to MIDI and back to music and learn to program using the songs they like to sing? To encourage students to become involved with manipulating sounds and programming music on their own computers, the approach will employ Audacity and Scratch, two free music recording, editing, and generation platforms. The team will study how well programming of music helps them acquire STEM skills by assessing the complexity and efficacy of the programs they can learn to code. (2) Can programming their individual parts help students learn to sing in three- and four-part harmony? The main focus is on learning of STEM, but research on this question will evaluate whether programming skills can help students learn about music too. (3) What resources, models, and tools (RMTs) are necessary to integrate STEM education into a middle school after-school choral program? The team will work with local middle schools to research techniques for integrating computing into after-school choral programs without disrupting their musical focus. They will identify what choral teachers need in order to do this integration, and they will devise and evaluate techniques for adding STEM skills to the students' choral experience. (4) Can the involvement of adults who match the students' racial and/or cultural backgrounds have a positive effect on the "people like me don't (or can't) do that?" belief that so often stifles efforts to attract underrepresented groups to STEM? They will actively seek to involve students of underrepresented groups in the program by recruiting adult role models from these groups who are involved with both music and computing. They will use attitudinal surveys to assess whether these adults have any effect on the students' self-efficacy and the "people like me" syndrome that hinders some from engaging in STEM.
A recent report by the Association for Computing Machinery estimates that by decade's end, half of all STEM jobs in the United States will be in computing. Yet, the participation of women and underrepresented groups in post-secondary computer science programs remains discouragingly and persistently low. One of the most important findings from research in computer science education is the degree to which informal experiences with computers (at many ages and in many settings) shape young people's trajectories through high school and into undergraduate degree programs. Just as early language and mathematics literacy begins at home and is reinforced throughout childhood through a variety of experiences both in school and out, for reasons of diversity and competency, formal experiences with computational literacy alone are insufficient for developing the next generation of scientists, engineers, and citizens. Thus, this CAREER program of research seeks to contribute to a conceptual and design framework to rethink computational literacy in informal environments in an effort to engage a broad and diverse audience. It builds on the concept of cultural forms to understand existing computational literacy practices across a variety of learning settings and to contribute innovative technology designs. As part of its overall strategy to enhance learning in informal environments, the Advancing Informal STEM Learning (AISL) program funds new approaches to and evidence-based understanding of the design and development of STEM learning in these settings. This CAREER program of research seeks to understand the role of cultural forms in informal computational learning experiences and to develop a theoretically grounded approach for designing such experiences for youth. This work starts from the premise that new forms of computational literacy will be born from existing cultural forms of literacy and numeracy (i.e., for mathematical literacy there are forms like counting songs -- "10 little ducks went out to play"). Many of these forms play out in homes between parents and children, in schools between teachers and students, and in all sorts of other place between friends and siblings. This program of study is a three-phased design and development effort focused on key research questions that include understanding (1) how cultural forms can help shape audience experiences in informal learning environments; (2) how different cultural forms interact with youth's identity-related needs and motivations; and (3) how new types of computational literacy experiences based on these forms can be created. Each phase includes inductive research that attempts to understand computational literacy as it exists in the world and a design phase guided by concrete learning objectives that address specific aspects of computational literacy. Data collection strategies will include naturalist observation, semi-structured, and in-depth interviews, and learning assessments; outcome measures will center on voluntary engagement, motivation, and persistence around the learning experiences. The contexts for research and design will be museums, homes, and afterschool programs. This research builds on a decade of experience by the PI in designing and studying computational literacy experiences across a range of learning settings including museums, homes, out-of-school programs, and classrooms. Engaging a broad and diverse audience in the future of STEM computing fields is an urgent priority of the US education system, both in schools and beyond. This project would complement substantial existing efforts to promote in-school computational literacy and, if successful, help bring about a more representative, computationally empowered citizenry. The integrated education plan supports the training and mentoring of graduate and undergraduate students in emerging research methods at the intersection of the learning sciences, computer science, and human-computer interaction. This work will also develop publically available learning experiences potentially impacting thousands of youth. These experiences will be available in museums, on the Web, and through App stores.
This is the final report of the Open University’s RCUK-funded Public Engagement with Research Catalyst, ‘An open research university’, a project designed to create the conditions in which engaged research can flourish. The report describes an evidence-based strategy designed to embed engaged research within the University’s strategic planning for research and the operational practices of researchers. This programme of organisational change was informed by action research, working collaboratively with researchers at all levels across the institution to identify and implement strategies that
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TEAM MEMBERS:
Richard HollimanAnne AdamsTim BlackmanTrevor CollinsGareth DaviesSally DibbAnn GrandRichard HoltiFiona McKerlieNick MahonyNick Mahony
Advances in genomics are rapidly increasing our understanding of not only the human body, disease and health-related issues but how humans and other species interact and respond to changing environments. Genomics represents a scientific frontier that connects with individuals and families at the most personal level, with the potential to shape the future of human healthcare. However, advances in genomics and their implications for personalized medicine are far out-pacing public awareness and knowledge. The Connecticut Science Center and the University of Connecticut partnered under a National Science Foundation funded collaboration between Dr. Rachel O'Neill, UCONN, and Dr. Hank Gruner, Connecticut Science Center, and the National Center for Science & Civic Engagement to engage the public in developing a conceptual understanding of genomics.
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TEAM MEMBERS:
Connecticut Science CenterRachel O'NeillHank Gruner
There are a number of places evaluators can share their reports with each other, such as the American Evaluation Association’s eLibrary, the website informalscience.org, and organizations’ own websites. Even though opportunities to share reports online are increasing, the evaluation field lacks guidance on what to include in evaluation reports meant for an evaluator audience. If the evaluation field wants to learn from evaluation reports posted to online repositories, how can evaluators help to ensure the reports they share are useful to this audience? This paper explores this question through
Drawing upon critically oriented studies of science literacy and environmental justice, we posit a framework for activism in science education. To make our case, we share a set of narratives on how the River City Youth Club acquired a new green roof. Using these narratives we argue that the ways in which youth describe their accomplishments with respect to the roof reflects a range of subject positions that they carve out and take up over time. These subject positions reveal how activism is a generative process linked to “knowing” and “being” in ways that juxtapose everyday practices with
This article investigates the development of agency in science among low-income urban youth aged 10 to 14 as they participated in a voluntary year-round program on green energy technologies conducted at a local community club in a midwestern city. Focusing on how youth engaged a summer unit on understanding and modeling the relationship between energy use and the health of the urban environment, we use ethnographic data to discuss how the youth asserted themselves as community science experts in ways that took up and broke down the contradictory roles of being a producer and a critic of
Investigating Green Energy Technologies in the City (GET City) is a youth-based project designed to target underserved middle school students and introduce concepts in energy sustainability and environmental health. Partners include Michigan State University's College of Education and College of Engineering, Lansing Boys and Girls Club, Lansing Board of Water and Light, and Urban Options, a non-profit energy and environmental agency. Participants learn to use IT tools (GIS software, databases, and communication tools) and gain IT workforce skills, research experiences, science knowledge, and inquiry skills. Project components include bi-weekly afterschool sessions (18 weeks), a 3-week summer program with field-based design experiences, community energy events, parental involvement activities, career field trips, and a project website. Youth will also participate in an annual community fair and conduct energy audits. Topics covered include brownouts, environmental health, alternative energy sources, and green energy technologies. Youth will receive ongoing support from energy mentors and gain leadership experience. The project will result in the development of a curriculum that includes IT-based investigations with a focus on core energy concepts. GET City also includes a research component that examines youth identity development in science, engineering, and IT in an attempt to understand how the program supports participation in an IT community of practice. The research, in conjunction with the comprehensive evaluation, will contribute to the field by providing insight into how the program design fosters youth engagement and learning in science, engineering, and IT. Seventy youth will receive 280 contact hours over two years of participation.
Health care in the United States is expensive and complex, and there are many competing interests that make it an increasing necessity for health care consumers to take an active role to better advocate for themselves and those who are impacted by the decisions that are made. Making effective health care choices requires both science literacy and critical thinking skills to understand and evaluate options. The Weighing the Evidence (tentative title) project team will work with medical experts, researchers, health and medicine journalists, and community partners to improve visitors’ critical analysis skills and ability to review evidence so that they can make informed health care decisions. To meet this goal a traveling exhibition will be developed utilizing a unique collection of historical and contemporary quack medical devices donated to the Science Museum of Minnesota when the Museum of Questionable Medical Devises closed in 2002. While the collection is rich in fun and entertainment, it also offers a multitude of opportunities to reflect on science, society and ethics, skepticism, and objectivity. This collection, along with interactive experiences, theater programs, outreach programming and a companion web site will provide visitors with the tools needed to become more knowledgeable health care consumers.
EdVenture Children's Museum, a hands-on, children's museum in Columbia, S.C., in close collaboration with NIH-funded researchers at the University of South Carolina, proposes a five-year, SEPA project titled "Unlocking the Mysteries of Chronic Diseases: BioInvestigations for Family, School and Youth Audiences." The program will develop teaching laboratories and experiments to educate youth ages 5-14, teens and adults about biomedical science topics in a fun, investigatory way. From these laboratory experiences, EdVenture will also develop educational programs designed to engage disadvantaged audiences in schools and communities to help expose them to the world of science and the benefits of community-based translational research. The laboratories and educational programs will utilize scientific content drawn from NIH-sponsored biomedical research, and will translate the research process and public impact into meaningful experiences for the public. These programs will reach a large population, both urban and rural, in socio-economically depressed areas of the state, promoting students' interest in topics that they may not otherwise be exposed to and encouraging a lifelong familiarity and facility with scientific thought and practice. Throughout the life expectancy of this project, a projected 2.5 million children and adults will experience the laboratories and related educational programs. Long-term goals are to encourage future biomedical science career choices, and most importantly, empower a child to take control over his/her own health decisions and to develop the necessary skills to navigate the flood of health information inherent in the quickly changing landscape that is health today.
The overall goal of the current proposal is to adapt the interdisciplinary research-based curriculum created at the School for Science and Math at Vanderbilt (SSMV) for implementation of a four-year program in three Metropolitan Nashville Public School (MNPS) high schools. The specific aims of the proposal are to adapt the on-campus (at Vanderbilt) model for implementation in three public high schools with different academic profiles (SSM Academies); to define the variables and features required to sustain the program and to replicate the model in any high school setting; and to define a strategy for disseminating the model to additional schools. Students entering 9th grade in a school in which an SSM Academy has been implemented will be encouraged to apply. Those who are accepted into the program will spend three hours every other day in two courses based on the adapted curriculum. As with the SSMV, rising seniors will have opportunities to enter Vanderbilt laboratories for summer research internships. Teachers from the high school will work with Center for Science Outreach scientists to adapt the SSMV curriculum for implementation. Ongoing, year-long teacher professional development will be conducted to ensure that the curriculum is dynamic and the teachers are well-prepared to engage and guide the students in the curriculum. The anticipated outcomes include enhanced student achievement as measured by GPA, and scores on ACT science reasoning and end of course tests; increased SSM student interest in careers in science; increased district-wide enrollment in SSM programs; increased graduation rates and postsecondary education enrollment by SSM students; development of unique curricular science units that can be adapted for a novel four-year interdisciplinary research- based curriculum; development of a sustainable model built on effective features of each SSM that can be exported to other high schools within and outside Nashville; enhanced community and family involvement in the SSM programs and school community in general; a strengthened partnership between Vanderbilt and MNPS that will serve as a national model of a successful university-K-12 collaboration to enhance science teaching and learning.
The Science Museum of Minnesota (SMM) requests a grant from the National Center for Research Resources through the SEPA program to develop and evaluate a model biomedical science education partnership program in collaboration with the University of Minnesota's Cancer Center, Medical School, School of Public Health, and College of Veterinary Medicine. The museum will work with 19 researchers at the University to develop a multifaceted exhibition and presentation program focusing on the importance of human tissues in biological development, function, and disease. The 1500-square-foot exhibition, to be located in SMM's new Human Body Gallery, will consist of an introduction to tissues and four topical exhibit clusters. Each topic was chosen because it tells a fascinating story of how the human body works and because it represents an important current NIH research focus in health and medicine. The exhibits will emphasize the importance of understanding how tissue function and viability leads to advances in detection, treatment, and curing different diseases. The exhibits closely support the National Science Education Standards Content Standards for Life Science for grades 5-9 (representing the majority of school field trip visitors to the museum.) A complimentary presentation/outreach program will involve NIH-supported researchers in three programs designed to increase public understanding of basic biomedical science, the causes and cures for disease, and the goals and achievements of biomedical research. A Visiting Scientists Program will feature scientists in the museum presenting programs and demonstrations related to their research interests. A Scientist Mentor Program will involve scientists closely with a diverse team of high-school aged youth to develop ongoing demonstrations and community outreach programs. A Dramatic Presentation will bring home to museum visitors the wider ethical and philosophical dimensions of tissue research.