This paper presents the design, implementation, and evaluation of an innovative experiential learning program that integrates microelectronics and industrial robotics to prepare a diverse next-generation STEM workforce. The project, Empowering the Next Generation of the American Workforce: Integrating Microchips and Industrial Robotics in Experiential Learning Camps, introduces high school and community college students to microchip programming, robotics, and cybersecurity through a structured, three-phase camp model. In Phase I, participants develop foundational skills in microcontrollers, microprocessors, and programming using Arduino-based platforms. Phase II advances learning by integrating microchips with collaborative robotic arms, enabling students to apply their programming knowledge to real-world robotic tasks. In Phase III, participants transition to programming and operating FANUC industrial robots, gaining experience with industry-standard systems and exploring cybersecurity aspects of data transmission in cyber-physical environments. The program culminates in a showcase and competition, fostering creativity, collaboration, and problem-solving. A rigorous evaluation framework employing pre- and post-assessments, surveys, and project-based evaluations measures student engagement, learning gains, and effective teaching strategies in informal settings. Early findings suggest that hands-on, structured experiences significantly increase students’ interest in microelectronics and robotics, while also supporting the development of transferable skills in programming, problem-solving, and teamwork. The project further contributes to addressing diversity gaps in the semiconductor and robotics industries by intentionally recruiting underrepresented students through established partnerships with regional high schools, tribal colleges, and community colleges in Michigan’s Upper Peninsula. By disseminating curricula, best practices, and outcomes through conferences, publications, and integration into Michigan Tech’s Summer Youth Programs, this work offers a scalable and sustainable model for broadening participation and enhancing STEM education in microelectronics, robotics, and cybersecurity.
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