Mobile geospatial technologies enable high school students to engage in authentic scientific data collection and analysis that promote spatial-thinking and reasoning skills, as well as problem-solving in a school’s local environment. We developed and implemented an Ecological Services investigation aligned to the Next Generation Science Standards in an urban high school with a large population of economically disadvantaged students. The investigation includes local field data collection with mobile devices and classroom data analysis using a freely available Web Geographic Information System

Digital East St. Louis, a project supported by a National Science Foundation ITEST grant, is a collaboration between Southern Illinois University’s STEM Center and the IRIS Center for the Digital Humanities to design programming that encourages newfound interest in technology via a place-based approach to the digital humanities. I serve as the project’s curriculum director, alongside STEM’s Instructional Designer Matthew Johnson and English Professor Howard Rambsy.The informal educational program provides participants in grades six - nine in real life (IRL) experiences as they tell the stories

New York Harbor is a large, iconic and complex body of water that has been extensively modified to support the development of a megacity. These modifications have affected the shorelines, water flow, water quality, habitats and living resources of the harbor. Changes in topography and bathymetry have altered the landscapes and seascapes of the region, largely to support an active shipping port and intense human settlement. New York Harbor has been transformed from a region dominated by marshy shorelines, extensive submersed oyster beds and obstructed entrances to the present-day harbor with

The CCERS partnership includes collaborators from universities, foundations, education departments, community organizations, and cultural institutions to build a new curriculum. As reported in a study conducted by the Rand Corporation (2011), partnerships among districts, community-based organizations, government agencies, local funders, and others can strengthen learning programs. The curriculum merged project-based learning and Bybee’s 5E model (Note 1) to teach core STEM-C concepts to urban middle school students through restoration science. CCERS has five interrelated and complementary

Preparing students to become active, participatory citizens is more than promoting personal responsibility. It requires actively engaging with others in order to improve one’s community. Using a critical geography approach, this article describes research with students living in urban areas that engaged them in fieldwork and citizen mapping of the neighborhood around their high school. We were interested in how they interacted with this environment and their perceptions of social justice issues in the community. Student groups worked together to identify and investigate topics of their

Our project introduced students in grades 7 through 12 to spatial thinking and geospatial technologies in the context of challenges in their community. We used a mix of levels of inquiry to advance learning from teacher- to student-guided through a citizen mapping group activity. Student-suggested problem-based topics included parks and community gardens, crime, housing, and youth employment opportunities. Qualitative methods were used to evaluate students’ knowledge of spatial thinking and geospatial technologies, including map interpretation, a case study, daily exit slips, and interviews

As part of the design and development of an informal learning environment meant to increase urban middle school students’ interest in technology-focused STEM careers, and to support their twenty-first century skill development, researchers developed and administered the ICT/Twenty-First Century Skills Questionnaire. Both STEM-ICT professionals and middle school students completed the survey. STEM-ICT professionals indicated that problem solving, critical thinking and communication were the most valued and the most frequently used skills in their environments. Students underestimated the amount

Our work investigates how Making may be used in the context of scientific modeling in formal elementary school science classes. This paper presents an investigation of fourth- and fifth-grade students engaging in Making activities to create simulation, concept-process, and illustrative models in the science classroom. Based on video analyses of the Making-based class sessions, a generalized process model was developed for each type of science model. In addition, cross-cutting themes were found in Making-based science modeling: first, there are two loops that intersect and interact with each

Recent discussions of making have focused on developing out-of-school makerspaces and activities to provide more equitable and enriching learning opportunities for youth. Yet school classrooms present a unique opportunity to help broaden access, diversify representation, and deepen participation in making. In turning to classrooms, we want to understand the crucial practices that teachers employ in broadening and deepening access to making. In this article, we investigate two high school teachers' approaches in implementing a novel eight-week, electronic textiles unit within the Exploring

High school capstone courses—culminating educational experiences for seniors as they conclude their formal high school education—have become increasingly popular across the nation, particularly in New England. The STEMStarter Capstone was designed to help Connecticut high schools meet new accreditation standards from the New England Association of Schools and Colleges (NEASC) and graduation requirements that include a mastery-based learning project. Standard 2 of the NEASC 2020 Standards (2018) for school accreditation states: “Students are active learners and have the opportunity to lead