The scientific careers of the future increasingly require advanced understandings and applications of computer programming and mathematics. This project is designed to broaden participation in these career pathways and careers by iteratively developing and testing bilingual computer programming curricula in middle school mathematics classes attended primarily by multilingual Latinx students.

Artificial intelligence (AI) technology applied to images and video is transforming society with broad applications to many social and economic sectors. To develop a citizenry that will participate in this technological revolution, it is essential to develop learning experiences for K-12 learners on the foundations of AI literacy in order to adequately prepare the workforce of the future. Supporting the teaching of AI concepts in the K-12 curriculum requires integrating knowledge from multiple disciplines.

This project will develop and study an innovative community-based engineering education model to support science, technology, engineering, and mathematics (STEM) knowledge, identity, and career awareness of rural, economically disadvantaged students. The project leverages strategic partnerships between North Carolina State University, Edgecombe School District, and local industry to create an Engineering Design and Exploration course.

The underrepresentation of female students in computing and engineering fields can be attributed to different factors such as gender stereotypes or unfamiliarity with computing and engineering fields. This project will occur in a region in which many secondary female students have not had opportunities to take STEM and Information and Communication Technologies courses. The project aims to broaden the participation of secondary female students in STEM and Information and Communication Technologies fields by engaging them in ubiquitous intelligence and computing.

The Enhancing Engagement and Conceptual Understanding of Fractions for Students with Learning Disabilities using the Model Mathematics Education Curriculum is a Developing and Testing Innovations (DTI) project in the Innovative Technology Experiences for Students and Teachers (ITEST) program. This project advances efforts of ITEST program by developing an integrated curriculum for 4th - 6th grade students with learning disabilities and difficulties to increase engagement in and understanding of fraction concepts.

This Miami University project will synthesize research conducted from 2000 to the present regarding the effects of innovative technology-based educational interventions on PreK-12 students' STEM career outcomes. This mixed-method study will include two concurrent, interrelated components?a quantitative meta-analysis and a qualitative synthesis. The goal of the project is to provide a more complete understanding of rigorous intervention research regarding the effects on students' STEM career outcomes.

Many elementary school children in urban communities are not given the opportunity to relate what they see in school to the mathematics they see in their homes, families, and communities. This project will help solve this problem through a digital storytelling approach. It will investigate how elementary grade children can use mobile technology to create digital mathematics stories. These stories will be made from videos, photos, and audio. Students will connect mathematics from out-of-school settings to the mathematics they learn in school.

This exploratory project will study the integration of science, design and advanced technology in high school education through a set of innovative learning experiences in the context of plant science using augmented and virtual reality (AVR) technologies. Underrepresented and underserved students from both urban and rural communities will have access to novel educational tools while learning how to create 3D models of different parts of plants in small collaborative teams.

 ​As scientific discovery becomes ever more data-driven, there is a critical need to build a scientific workforce with robust skills in scientific modeling and large-scale data analysis. Nowhere is the need to strengthen learning opportunities greater than in rural areas, where a majority of the nation’s school districts reside and where under-investment persists.​ 

Many schools include engineering design tasks in the science curriculum as one way to provide opportunities for middle school students to contribute to finding solutions to real-world problems. However, students who attend high needs schools often have few opportunities to make such contributions. This condition exists because sometimes teachers in high needs schools have difficulty creating learning environments where students feel confident enough to engage in the engineering design process.