The overall objective of this project will be testing a model of community engagement in STEM learning through the design and implementation of a high school level career and technical education (CTE) bioscience course. The problem, the spread of infectious disease, specifically influenza, was chosen for the local community (Coconino County, AZ) after consultation with community partners. The project emanates from efforts in education designed to develop the next generation of STEM innovators who can productively participate in our increasingly global society.

The program will positively influence the engineering self-efficacy and orientation to STEM majors with African American students living in an underserved region of the United States, the Mississippi Delta. Students in this program are immersed in engineering design activities requiring the application of science and mathematics principles. The program model includes pre-engineering courses in computer science, computer aided drafting, and electronics. These are designed and facilitated by university faculty. Undergraduate seniors are trained by faculty and then serve as mentors. Engineering design activities, career orientation activities and robotics summer camps for elementary and middle school students are facilitated by high school faculty. At the beginning of the spring semester, students participate in an international robotics competition. This robotics program is year-long and occurs after school, and halfway through the year students enter their designs in a robotics competition. Beginning in the freshmen year, students are allowed to remain in the program throughout their years in high school.

Advanced manufacturing technologies, such as 3D printing, are transforming design and several fields of engineering. This innovative project will use 3D technology to help students learn about science and engineering through the history of inventions in the United States. As part of science and

This ITEST Strategies project, engages middle school students in project-based learning around their community's water resources. Through the innovative use of technology the project enables data sharing among schools in different parts of the country and provides a forum for the development of a professional learning community for teachers.

STEM Career Clubs builds on a successful and research-based Strategic Teaming Model to increase the likelihood that participating students will pursue STEM majors and careers.

Research studies, commissioned reports, and national and international tests of educational progress in STEM fields show that a large gap exists, in interest and achievement, between underrepresented students and their counterparts.

To address the needs of the US to increase the ICT workforce with enhanced preparation and a diverse population of prepared secondary students, this strategies ITEST project will strengthen the current regional partnerships in place between secondary schools, the University of Cincinnati's IT and STEM education programs, and local industries.

Involving more students from urban and rural areas in STEM fields and careers has been at the forefront of national STEM education reform efforts for decades. Research shows that engaging these students in STEM activities relevant to their everyday lives is critical to increasing their motivation, interest, learning, and participation in STEM.

Nationwide, middle-school youth from underrepresented communities have few opportunities to engage in authentic STEM investigations that build on the students' intrinsic interests in space science and robotics to increase their interests in both ICT and STEM careers.

The GIS Resources and Applications for Career Education (GRACE) project builds upon a recent NSF-funded project, the Mayors Youth Technology Corps (MYTC), that developed a model of geographic information systems and technology (GIS/T) based education.