Current science education policy advocates for engaging students in scientific practices of inquiry as the best way for students to learn science. McConney et al.’s analysis of PISA data unexpectedly found a negative correlation between frequency of inquiry-based instruction and high levels of student scientific literacy. The analysis confirmed a positive correlation between frequency of inquiry-based instruction and high levels of interest and of engagement in science.
Current science education reforms emphasize the ways in which students’ scientific practices, such as experimenting, collecting data, and interpreting results, develop over time. Bricker and Bell suggest that practices develop not only over time, but also across multiple settings and opportunities. Their study shows how, over several years, one youth’s identification with science was shaped by many everyday moments, social configurations, and collaborators.
Researchers examined whether engineering activities and lessons can help students apply science and math content in real-world contexts and gain insights into the professional activities and goals of engineers.
The new standards posit that “scientific argumentation,” in which students use data to argue from evidence, is a key practice for student science learning. However, a mismatch in expectations about the purpose of classroom discussions can inhibit productive forms of argumentation. Berland and Hammer compare forms of class discussions to identify how best to support students’ engagement in argumentation.
Although computer science drives innovations that directly affect our everyday lives, few K–12 students have access to engaging and rigorous computer science learning. This article describes an effort to democratize access to computer science education through a program based on inquiry, culturally relevant curriculum, and equity-oriented pedagogy.
The Boston Schools Environmental Initiative (BSEI) program worked with several Boston Public schools to foster “hands-on, minds-on” science and environmental awareness. The overall finding from this evaluation, conducted over four academic years, was that the longer a school participated in the BSEI program, the more the culture and operations of the school changed in the direction of the intended BSEI outcomes. BSEI is a program of Mass Audubon’s Boston Nature Center (BNC), which places a teacher naturalist part time in each school, and provides ongoing professional development and project
WCS launched its electronic field trip program, Distance Learning Expeditions, in 2001 when there
was tremendous interest in the educational community in the potential of videoconferencing
technology for program delivery, as well as money available for the purchase of related broadcast
equipment. The program grew rapidly and was successful through 2009 -- serving 9,600 students
in 2006-07, its largest year. From 2010 to 2014, with school budget cuts, high equipment
maintenance costs, and shifts in staffing, participation in the program declined. In 2010, WCS
secured a grant from IMLS for
The purpose of the Lenses on the Sky project is to create diverse skywatching-related experiences for youth across Oregon with a special focus on underserved Hispanic, African American, Native American, and rural communities. The Oregon Museum of Science and Industry (OMSI) will create and implement the project in collaboration with Portland’s Rose City Astronomers amateur astronomy club, Rosa Parks Elementary School in Portland, the Libraries of Eastern Oregon (LEO), and ScienceWorks Hands-On Museum in southern Oregon. The goals of the project are for participants to 1) understand the “big idea” that “humans have used observational tools and techniques across culture and time to understand space phenomena”, 2) recognize the relevance, value, and scientific achievements of NASA missions, and 3) be inspired to learn more about topics related to space science, STEM careers, and NASA. Audiences will explore these topics through three main “lenses” or frames: a NASA lens, a tools lens, and a cultural lens. The project will result in 1) a small, permanent, bilingual (Spanish/English) exhibition in OMSI’s free, public spaces adjacent to its planetarium, 2) three observational astronomy events held in Portland, Southern Oregon, and Eastern Oregon, 3) hands-on activities conducted at partner museums/libraries and shared with other educational institutions, 4) an Educator's Guide including lesson plans aligned with Next Generation Science Standards (NGSS), and 5) over 150 email communications to hundreds of recipients featuring space news updates.
Great Lakes Science Center (GLSC), home of the NASA Glenn Visitor Center, is dedicated to sharing NASA content to inform, engage, and inspire students, educators, and the public. To further this goal, GLSC will develop a digital experience focused on collaboration and teamwork, emphasizing the benefits of a systems approach to STEM challenges. At the recently, fully renovated NASA Glenn Visitor Center, GLSC visitors will embark on an exciting mission of discovery, working in teams to collect real data from NASA objects and experiences. Mobile devices will become scientific tools as students, teachers, and families take measurements, access interviews with NASA scientists, analyze results from Glenn Research Center (GRC) test facilities, and link to NASA resources to assemble mission-critical information. This initiative will provide experiences that demonstrate how knowledge and practice can be intertwined, a concept at the core of the Next Generation Science Standards. GLSC’s digital missions will engage students and families in STEM topics through the excitement of space exploration. In addition, this project has the potential to inform the design of future networked visitor experiences in science centers, museums and other visitor attractions.
The Wild Center will develop, implement, and disseminate a model program, VTS in Science, for the science museum field adapted from the Visual Thinking Strategies (VTS) teaching method. In partnership with several museums, educators, and a consulting firm, the Wild Center will use current research to develop informal and formal learning programming; implement a model professional development program for science museum professionals and elementary teachers; provide educators resources and knowledge to develop VTS in Science programming relevant to daily teaching—including a VTS in science toolkit; facilitate a long-term collaborative process and model school-museum partnership among a diverse group of education providers; and evaluate the effectiveness of the VTS in Science program in order to promote replication by science museums nationally.
Sam Noble Oklahoma Museum of Natural History will develop traveling natural history science curricula kits for K-12 students. This project will expand the museum's outreach program, featuring STEM (Science, Technology, Engineering, and Mathematics) content with a focus on Oklahoma geology, life, and cultural science. The museum will share the educational kits, featuring materials aligning with state educational standards, with teachers across Oklahoma. The museum's digitization of the kits will increase the capacity and number of teachers who have access to the material and enable students to experience high-quality STEM educational opportunities offsite and online.
The Cyberlearning and Future Learning Technologies Program funds efforts that support envisioning the future of learning technologies and advance what we know about how people learn in technology-rich environments. In this Cyberlearning EAGER project, the project team is developing foundations for using "paper mechatronics" as a learning technology. Paper mechatronics makes possible a craft-oriented approach to engineering and computing education that integrates key concepts from mechanical engineering, electrical engineering, control systems, and computer programming, while using paper as the primary material for learner design, exploration, and inquiry. In this approach, learners will design foldable paper components and assemblies; program motors, sensors and controls; test their ideas iteratively; and share their designs on a website. This paper-based modeling approach to learning concepts in and practices of mechanical engineering, electrical engineering, control systems, and computer programming ultimately aims to make it possible for all learners to have exposure to and the opportunity to participate in creative engineering, design, and computer programming.
The approach to learning through designing and making through paper mechatronics is made possible by a convergence of many different technological factors -- the array of small computers, sensors, and actuators that are becoming available at low cost and a size that children can use; availability of a wide variety of manipulable conductive materials (threads, paints, fabrics); low-cost and precise desktop and laser cutters for paper and similar materials; a wide variety of novel paper-like materials; and new ways of interacting with the computer. The approach has its foundations in Papert's constructionism and in the current maker movement, but it has potential beyond constructionism itself, both in practice and with respect to what can potentially be learned about learning and development in in context of its use.