In a Latin American university's engineering program, the experimental physics course is a key component of the undergraduate curriculum, with 29 sections and around 1,100 students. This study introduces an innovative approach to data acquisition in physics experiments by integrating Tracker© software with 3D printing technology to enhance data collection accuracy and student learning outcomes in kinematics experiments. The core of this study is a pilot experiment designed within the physics lab, where a custom 3D-printed model (referred to as the "flag") is incorporated into the traditional kinematics experiment setup. Data acquisition is then compared between two experimental conditions: with the 3D-printed flag and without it. Tracker© software captures the data in real-time, and Excel is used for analysis and modeling. This combination of tools offers immediate processing and visualization capabilities. Student feedback (n=811 participants) suggests that this technology integration may help reduce data acquisition challenges, potentially allowing students to focus more on analyzing physics concepts. The methodology involves deploying this experimental activity across multiple course sections during the second semester of 2024, followed by surveys administered to the participating students and their instructors. The student survey aims to assess the use of Tracker as a tool to collect data, the incorporation of a 3D-printed flag to improve the accuracy of the data, and their perspective on the impact of tools on their learning experience. In contrast, the instructor survey gathers insights into the practical aspects of implementing this innovation in a lab setting. Expected outcomes include enhanced data acquisition processes and a noticeable improvement in student comprehension of kinematic principles. The results support that low-cost, custom-designed equipment can significantly benefit experimental physics education by providing more reliable data and a deeper learning experience for students. Ultimately, this research contributes to physics education by illustrating the value of combining technology and hands-on learning tools to improve experimental practices. The study’s findings guide future curriculum design, advocating for the inclusion of 3D printing and advanced data analysis software in physics labs to enrich educational outcomes.
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