Impact of Gamified Learning on Programming Skills Development in Secondary Schools

Thesis Abstract

The rapid expansion of digital technologies in education necessitates innovative instructional strategies to enhance programming skills among secondary school students, a demographic often characterized by low engagement and limited practical skill acquisition in computer science. This study investigates the impact of gamified learning environments on students' development of programming competencies, aiming to provide empirical evidence to inform educational practices and curriculum design. The primary objectives are to evaluate the effect of gamified instruction on programming skill acquisition, examine students' motivation and engagement levels within gamified contexts, and identify potential moderating factors such as gender and prior coding experience. Employing a quasi-experimental research design, the study was conducted in twenty public secondary schools within the metropolitan region, comprising an experimental group of 200 students exposed to gamified programming lessons and a control group of 200 students taught through conventional methods. The population included students enrolled in introductory computer science courses, with stratified random sampling used to assign participants into groups to ensure demographic balance. Data collection instruments included a validated programming skills test, motivation and engagement questionnaires, and classroom observation checklists. The programming skills test was developed in alignment with national curriculum standards and subjected to pilot testing to establish content validity and reliability, with Cronbach’s alpha coefficients exceeding 0.80 for the motivation and engagement scales. Data analysis involved descriptive statistics to profile participant characteristics and test score distributions, followed by inferential statistical techniques such as Analysis of Covariance (ANCOVA) to evaluate differences in programming skills development between groups while controlling for baseline scores. Regression analysis was employed to assess the influence of motivation and engagement on skill acquisition, and moderation analysis explored the effect of demographic variables. The study is grounded in Self-Determination Theory to understand motivational processes and the Flow Theory to interpret engagement levels within gamified learning contexts, providing a theoretical framework for interpreting the findings. It is anticipated that students exposed to gamified learning environments will demonstrate significantly higher gains in programming skills compared to their peers in traditional instruction settings. Additionally, increased motivation and engagement are expected to mediate this relationship, with gender and prior experience identified as potential moderators. The study’s findings are expected to contribute to the limited empirical literature on gamification in secondary education, particularly in the context of programming education, and to validate the application of motivational and engagement theories in this domain. Based on the results, it is recommended that secondary school curricula incorporate gamified elements to foster active learning and skill development in computer science. Professional development programs for educators should emphasize the effective integration of game mechanics aligned with pedagogical goals. Future research could extend the investigation to longitudinal studies evaluating the sustained impact of gamification on programming proficiency and explore the integration of emerging technologies such as augmented reality to enhance engagement. The study underscores the potential of gamified learning strategies to address existing challenges in computer science education and to promote equitable access to programming skills necessary for the digital age.