Comparative Analysis of Digital Literacy Skills in Science Education Across Urban and Rural Schools

Thesis Abstract

The rapid integration of digital technologies in science education underscores the importance of digital literacy skills among learners, yet disparities persist between urban and rural school environments, potentially impacting students' scientific competence and future workforce readiness. This study aims to conduct a comprehensive comparative analysis of digital literacy skills within science education across urban and rural schools, with specific objectives to (1) assess the level of digital literacy among students in both settings, (2) identify factors influencing digital literacy development, and (3) determine the relationship between digital literacy skills and science academic performance. The research employed a cross-sectional, mixed-methods design, integrating quantitative surveys and qualitative interviews to achieve a holistic understanding of the phenomenon. The population consisted of 1,200 senior secondary school students and 50 science educators from ten urban and ten rural schools within a nationally representative region. A stratified random sampling technique was used to select participants, with questionnaires measuring digital literacy skills developed and validated through a pilot study, ensuring high reliability coefficients (Cronbach's alpha > 0.85). Data collection also included semi-structured interview protocols for educators to explore contextual influences. Quantitative data were analyzed using descriptive statistics, t-tests, and ANOVA to compare mean digital literacy scores between urban and rural students. Multiple regression analysis examined predictors of digital literacy, while thematic analysis was used to interpret qualitative interview data, revealing contextual factors such as access to technology, teacher proficiency, and infrastructural support. The study expects to find statistically significant differences in digital literacy levels favoring urban students, attributed to better access to digital tools, instructional training, and internet connectivity. Furthermore, the findings are anticipated to show a positive correlation between higher digital literacy scores and superior science achievement, implying that digital competence is integral to science learning outcomes. The study advances existing literature by providing empirical evidence on the extent of digital literacy gaps and their impact on science education, guided by the Technological Pedagogical Content Knowledge (TPACK) framework and the Digital Divide theory. It contributes to knowledge by identifying specific socio-economic, infrastructural, and pedagogical factors underlying disparities and offers a nuanced understanding of how digital literacy influences science learning success across different geographical contexts. The research concludes that targeted interventions in rural areas, such as improved digital infrastructure, teacher professional development, and student access to digital resources, are essential for narrowing the literacy gap. Policy recommendations include integrating digital literacy training into science curricula and deploying equitable technological resources. The study also suggests avenues for future research, including longitudinal studies to track the evolution of digital literacy skills over time and intervention-based research to evaluate the efficacy of specific strategies in enhancing rural students' digital competencies. Overall, this research underscores the critical need for contextualized strategies to bridge digital divides and foster equitable science education, thereby contributing substantially to educational policy formulation, pedagogical practices, and future scholarly inquiry in the domain of digital literacy in science education.