COURSE CURRICULUM

The Master of Engineering Technology program provides a comprehensive curriculum designed to develop advanced technical and managerial expertise for careers in industry, business, and engineering-focused organizations. The program combines core courses, business or mathematics electives, and specialized technical electives, ensuring that students acquire both theoretical knowledge and practical skills essential for modern technological environments. Core courses include systems engineering or applied reliability engineering, sustainable energy, project management in technological settings, and quality systems with an emphasis on industrial productivity. These foundational courses equip students with the ability to manage complex projects, optimize processes, and implement quality assurance methods in diverse technological contexts. Students also take business or mathematics electives such as business analytics, fundamentals of machine learning, theory of statistics, computational statistics, and applied statistics, which provide quantitative, analytical, and data-driven problem-solving skills crucial for decision-making and innovation. Major electives allow students to specialize according to their career goals, with options in computer engineering technology, manufacturing, robotics, and quality. These electives cover areas like wireless networks, information technology fundamentals, materials selection, engineering optimization, computer-aided manufacturing, industrial robotics, industrial automation and control, human factors engineering, design of experiments, and applied reliability engineering. The program culminates with a practical or hands-on experience in additive manufacturing, 3D printing, or industrial practice, allowing students to apply their knowledge in real-world settings. By integrating technical depth, analytical rigor, and management perspectives, the Master of Engineering Technology prepares graduates to meet the evolving demands of the engineering workforce, lead technology-driven projects, and contribute effectively to innovation, productivity, and process improvement in professional environments. The program’s interdisciplinary approach ensures that students gain a strong foundation in emerging technologies while developing skills necessary for leadership and problem-solving across multiple engineering and industrial domains.