While industries such as music, newspapers, film and publishing have seen radical changes in their business models and practices as a direct result of new technologies, higher education has so far resisted the wholesale changes we have seen elsewhere. However, a gradual and fundamental shift in the practice of academics is taking place. Every aspect of scholarly practice is seeing changes effected by the adoption and possibilities of new technologies. This book will explore these changes, their implications for higher education, the possibilities for new forms of scholarly practice and what
The long-term goal is to broaden our model program that currently targets African-American populations in the national capital area. The aim of the program is to: a) educate junior and senior high students and elementary school teachers directly; and b) provide opportunities for exploration of health-related sciences for the public at large (via an interactive website) so that topics in the biomedical sciences become "friendly and familiar" rather than the existing stereotype that science is erudite, obtuse, and incomprehensible. Specific objectives: (A) Design hands-on experiences in science laboratories and opportunities to interact with scientists in the setting of a sophisticated research institute; especially target under-represented minorities, students from inner city schools and other local schools where science opportunities may be limited. This will include junior and high school students, elementary school teachers, as well as interactions with Children's Museum and other similar organizations. (B) Set up interactive web-based informatics to include: i) a system where high school students could refine the question they are posing for science projects by discussing it with a professional scientist; ii) a general "ask-the-expert" site for science and health issues; iii) a reference site containing the detailed experimental protocols for student experiments; and iv) an interactive resource to aid teachers throughout the U.S. to establish contacts with scientists. The goal of this project is to extend the reach of current health science programs that are targeted to females, African-American junior and senior high school students, and elementary school teachers, located in the Washington, D.C., metropolitan area. The project includes laboratory apprenticeships, student mentoring, and an interactive website to help students and teachers establish contact with scientists nationwide.
Mobile technology can be used to scaffold inquiry-based learning, enabling learners to work across settings and times, singly or in collaborative groups. It can expand learners’ opportunities to understand the nature of inquiry whilst they engage with the scientific content of a specific inquiry. This Sharples et al. paper reports on the use of the mobile computer-based inquiry toolkit nQuire. Teachers found the tool useful in helping students to make sense of data from varied settings.
This volume explores how technology-supported learning environments can incorporate physical activity and interactive experiences in formal and informal education. It presents cutting-edge research and design work on a new generation of "body-centric" technologies such as wearable body sensors, GPS tracking devices, interactive display surfaces, video game controller devices, and humanlike avatars. Contributors discuss how and why each of these technologies can be used in service of learning within K-12 classrooms and at home, in museums and online. Citing examples of empirical evidence and
The digital revolution has transformed how young people discover and pursue their interests; how they communicate with and learn from other people; and how they encounter and learn about the world around them. How can we identify best practices for incorporating new media technologies into learning environments in a way that resonates with youth, including their interests, goals, and the ways they use technology in their everyday lives? How do we resolve the need to document and recognize informal STEM learning and connect it to formal education contexts? What strategies can be developed for inspiring and tracking student progress towards the learning goals outlined in the Next Generation Science Standards (NGSS)? These questions are the underlying motivation for this CAREER program of research. Digital badges represent a specific kind of networked technology and have been touted as an alternative credentialing system for recognizing and rewarding learning across domains, both inside and outside of formal education contexts. While there is considerable enthusiasm and speculation around the use of digital badges, the extent to which they succeed at empowering learners and connecting their learning across contexts remains largely untested. This project seeks to fill this gap in knowledge. The approach taken for this program of study is a three phased design-based research effort that will be focused on four objectives: (1) identifying design principles and support structures needed to develop and implement a digital badge system that recognizes informal STEM learning; (2) documenting the opportunities and challenges associated with building a digital badge ecosystem that connects informal learning contexts to formal education and employment opportunities; (3) determining whether and how digital badges support learners' STEM identities; and (4) determining whether and how digital badges help learners to connect their informal STEM learning to formal education and employment opportunities. In Phase 1, an existing prototype created in prior work at Seattle's Pacific Science Center will be developed into a fully functional digital badge system. In Phase 2, the PI will also work collaboratively with higher education stakeholders to establish formal mechanisms for recognizing Pacific Science Center badges in higher education contexts. In Phase 3, the badge ecosystem will be expanded and students' use of and engagement with badges will be tracked as they apply to and enter college. The project involves high school students participating in the Discovery Corps program at the Pacific Science Center, undergraduate and graduate students at the University of Washington, and stakeholders in the K-12 and higher education community in Seattle. Educational activities integrated with this program of research will support: (1) mentoring University of Washington students throughout the project to develop their skills as practice-oriented researchers; (2) incorporating the research processes and findings from the project into university courses aimed at developing students' understanding of the opportunities and challenges associated with using new media technologies to support learning; and (3) using the research findings to develop educational outreach initiatives to support other informal STEM learning institutions in their use of digital badges.
NOVA Labs (www.pbs.org/nova/labs) is a web-based platform designed to engage teens and educators with authentic data, scientific games, tools, and opportunities to communicate with and assist working scientists. The present study sought to investigate the outcomes achieved by users of the fourth NOVA Labs platform developed: RNA Lab. The RNA Lab includes several key components of the previous labs (e.g., videos, educator guides, etc.). The major difference is that the RNA Lab “research challenge” is a game component. The NOVA Education team's overarching goals for teens using the Lab focused
Tornado Alley is a giant screen adventure that follows renegade filmmaker Sean Casey and the scientists of VORTEX2, the largest tornado research project ever assembled, on their epic missions to encounter one of Earth’s most awe-inspiring events: the birth of a tornado. Program components included the giant screen film; a Web site; educators’ guides and resources for classroom and informal learning; and professional development sessions utilizing cyberinfrastructure to facilitate remote interactions between educators and researchers performing actual data manipulations. In addition, an
This article takes a critical look at three pervasive urban legends in education about the nature of learners, learning, and teaching and looks at what educational and psychological research has to say about them. The three legends can be seen as variations on one central theme, namely, that it is the learner who knows best and that she or he should be the controlling force in her or his learning. The first legend is one of learners as digital natives who form a generation of students knowing by nature how to learn from new media, and for whom “old” media and methods used in teaching/learning
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Paul KirschnerJeroen van Merrienboer
The Science Cartoon (Sci-Toons) initiative, an informal education program, was developed to engage STEM and non-STEM students and faculty in the creation of science animation. Housed within Brown University’s Science Center, Sci-Toons projects incorporate several students and faculty each semester from both STEM and non-STEM majors. Team members are provided with technical training in animation, storytelling, and scientific concepts. The Sci-Toons model is a new approach for communicating scientific research and concepts to a broad audience via storytelling, animation, high-quality multimedia, and art.
The IRIS Education and Public Outreach program draws upon the seismological expertise of Consortium members and combines it with the staff expertise to create products and activities that advance awareness and understanding of seismology and geophysics while inspiring careers in Earth science. These products and activities are designed to impact 6th grade students to adults in diverse settings: self-directed exploration over the Web, interactive museum exhibits, major public lectures, and in-depth exploration of the Earth’s interior in formal classrooms. Each year, a select group of undergraduates spends the summer conducting research under the expert guidance of Consortium members and affiliates. Other highlights include the widely distributed Teachable Moment slide sets for use in college and school classrooms within a day of major earthquakes, new animations and videos, new content for the Active Earth Monitor, and expanded use of social media.
"Ongoing collaboration-wide IceCube Neutrino Observatory Education and Outreach efforts include: (1) Reaching motivated high school students and teachers through IceCube Masterclasses; (2) Providing intensive research experiences for teachers (in collaboration with PolarTREC) and for undergraduate students (NSF science grants, International Research Experience for Students (IRES), and Research Experiences for Undergraduates (REU) funding); and (3) Supporting the IceCube Collaboration’s communications needs through social media, science news, web resources, webcasts, print materials, and displays (icecube.wisc.edu). The 2014 pilot IceCube Masterclass had 100 participating students in total at five institutions. Students met researchers, learned about IceCube hardware, software, and science, and reproduced the analysis that led to the discovery of the first high-energy astrophysical neutrinos. Ten IceCube institutions will participate in the 2015 Masterclass. PolarTREC teacher Armando Caussade, who deployed to the South Pole with IceCube in January 2015, kept journals and did webcasts in English and Spanish. NSF IRES funding was approved in 2014, enabling us to send 18 US undergraduates for 10-week research experiences over the next three years to work with European IceCube collaborators. An additional NSF REU grant will provide support for 18 more students to do astrophysics research over the next three summers. At least one-third of the participants for both programs will be from two-year colleges and/or underrepresented groups. "
Scratch is a “media-rich programming environment” recently developed by MIT’s Media Lab that “lets you create your own animations, games, and interactive art.” Although Scratch is intended to “enhance the development of technological fluency [among youths] at after-school centers in economically disadvantaged communities,” we find remarkable potential in this programming environment for higher education as well. We propose Scratch as a first language for first-time programmers in introductory courses, for majors and non-majors alike. Scratch allows students to program with a mouse