Background: Typically, learning through mobile learning (m-learning) devices have been adopted in e-learning settings, especially for content delivery. Conversely, this study utilizes mobile devices for active learning, enabling students to engage in programming and PhyC activities within an introductory engineering course.
Intended Outcomes: The methodology sought to enhance four areas for the students: academic performance, motivation, collaboration, and CT through mobile devices and PhyC activities. The 76 undergraduate engineering students participated in the methodology from 2022 to 2024.
Application Design: The methodology comprised active learning tasks developed by the students and aligned with the educational outcomes expected in the course. These tasks integrated handling of the app mentioned with hardware devices, i.e., sensors and basic robotics, along with the curriculum of an introductory electronics course. Data from 76 students were collected through academic grades, a questionnaire on a Likert scale, and semi-structured interviews. Data were analyzed utilizing a mixed research approach.
Findings: The educational outcomes suggest that the students improved their understanding of PhyC, programming, and electronics concepts in the course, with a large Wilcoxon effect size (
Background: The rapid proliferation of IoT technologies across various sectors has created a pressing demand for a skilled workforce adept in IoT principles. However, existing educational models often provide a limited perspective on IoT, underscoring the necessity for a holistic educational framework that can be applied across diverse educational programs.
Intended Outcomes: The primary outcomes of this approach include improved student knowledge and understanding of IoT concepts, increased engagement in the learning process, enhanced retention rates, and the ability to apply learned concepts in practical scenarios.
Application Design: The course employs a modular constructivist instructional approach, which allows for the integration of modern learning theories and constructivist principles. This design facilitates adaptability to various teaching modalities and encourages active learning through hands-on experiences in each module, covering critical aspects of the IoT ecosystem.
Findings: The findings show significant improvements in student knowledge, with self-assessment data showing increases between 41.5% and 89.6% across all topic areas. Performance metrics and qualitative feedback consistently indicate that the course effectively enhances understanding of IoT concepts, demonstrating its versatility and effectiveness in different learning environments.

