This paper explores integrating microlearning strategies into university curricula, particularly in computer science education, to counteract the decline in class attendance and engagement in U.S. universities post-COVID. As students increasingly opt for remote learning and recorded lectures, traditional educational approaches need help maintaining student engagement and effectiveness. Microlearning, which breaks complex subjects into manageable units, is proposed to cater to contemporary students’ shortened attention spans and enhance their educational outcomes. This method caters to students’ learning preferences and enhances their engagement and motivation. It employs interactive formats such as videos, quizzes, flashcards, and scenario-based exercises, particularly beneficial for intricate topics like algorithms and programming logic requiring profound understanding and continuous practice.
However, the adoption of microlearning is often limited by the extensive effort required from educators to create these materials. This paper proposes leveraging advanced AI technologies, specifically ChatGPT, to alleviate the burden on educators by automating the development of supplementary educational materials. While AI can automate specific tasks, the role of educators in guiding and shaping the learning process remains crucial. This AI-driven approach not only diminishes the workload for educators but also ensures that course content is continuously updated with the latest research and technological innovations, with educators providing the necessary context and insights. By examining the capabilities of AI tools like ChatGPT, this study highlights the potential of AI-enhanced microlearning to transform educational practices and
outcomes in computer science, offering a viable model for integrating cutting-edge technology with established teaching methods.
Our ChatGPT-powered tool automatically converts video lectures and slide content into microlearning formats. It has been implemented in two courses, Discrete Math and Programming Language Principles, for junior students at Pennsylvania State University, USA, with class sizes ranging from 300 to 400 students. The readability scores for each microlearning category ensure that the material appropriately aligns with the student's reading capabilities, promoting effective content delivery and better learning outcomes. We will comprehensively evaluate student performance compared to previous semesters without microlearning. This evaluation will also assess the tool's impact on office-hour attendance, gathering feedback from students and instructors to measure its effectiveness. The thoroughness of our evaluation process will provide valid and reliable results.
The full paper will be available to logged in and registered conference attendees once the conference starts on June 22, 2025, and to all visitors after the conference ends on June 25, 2025