A Framework for Enhancing Scientific Inquiry Skills through Interactive Digital Pedagogies
Table Of Contents
Chapter ONE
INTRODUCTION
- 1.1Introduction to Digital Pedagogies and Scientific Inquiry Skills
- 1.2Background of Digital Interactive Pedagogies in Science Education
- 1.3Statement of the Challenges in Developing Scientific Inquiry Skills
- 1.4Aim and Objectives of Developing an Inquiry Enhancement Framework
- 1.5Research Questions on Interactive Digital Pedagogies and Inquiry Skills
- 1.6Research Hypotheses on Efficacy of Digital Pedagogical Frameworks
- 1.7Significance of a Structured Framework for Science Educators and Learners
- 1.8Scope and Delimitations of the Framework Development Study
- 1.9Limitations Encountered in Implementing Digital Pedagogies
- 1.10Organisation of the Thesis on Inquiry Skill Enhancement Framework
- 1.11Operational Definitions of Digital Pedagogies, Scientific Inquiry, and Frameworks
Chapter TWO
LITERATURE REVIEW
- 2.1Conceptual Foundations of Scientific Inquiry Skills in Science Education
- 2.2Digital Pedagogies: Definitions, Types, and Educational Relevance
- 2.3Theoretical Frameworks Underpinning Digital Inquiry Pedagogy (e.g., Constructivism and Connectivism)
- 2.4Empirical Evidence on Digital Pedagogies Improving Scientific Inquiry Skills
- 2.5Prior Frameworks Targeting Inquiry Skill Development via Technology
- 2.6Gaps in Literature on Digital Pedagogies and Inquiry Skill Frameworks
- 2.7Conceptual Model of Digital Pedagogy-Based Inquiry Skill Development
- 2.8Critique of Existing Theories and Models in Digital Science Education
- 2.9Synthesis of Literature and Identification of Research Gaps
- 2.10Summary and Conceptual Map of Existing Knowledge in the Field
- 2.11Rationale for developing a New Framework for Inquiry Skills Enhancement
Chapter THREE
RESEARCH METHODOLOGY
- 3.1Research Design: Model Development and Validation Approach
- 3.2Philosophical Paradigm Underpinning the Study: Pragmatism
- 3.3Population of the Study: Science Teachers and Students in Secondary Schools
- 3.4Sample Size Determination and Sampling Strategy (Stratified Random Sampling)
- 3.5Data Sources and Collection Instruments (Questionnaires, Observation Protocols, Interviews)
- 3.6Validity and Reliability Procedures for Digital Pedagogy Instruments
- 3.7Data Analysis Methods: Quantitative and Qualitative Techniques
- 3.8Development and Specification of the Inquiry Skills Pedagogical Framework Model
- 3.9Ethical Considerations in Conducting Educational Research
- 3.10Pilot Study Procedures and Ethical Approvals Obtained
Chapter FOUR
DATA PRESENTATION AND ANALYSIS
- ANALYSIS AND DISCUSSION
- 4.1Presentation of Demographic and Contextual Data
- 4.2Descriptive Analysis of Digital Pedagogies and Inquiry Skills Data
- 4.3Testing Hypotheses on Framework Effectiveness in Inquiry Skill Development
- 4.4Quantitative Results Interpretation of Model Validation Data
- 4.5Thematic Analysis of Qualitative Data from Interviews and Observations
- 4.6Integration of Quantitative and Qualitative Findings
- 4.7Discussing Findings in Relation to Theoretical Frameworks and Literature
- 4.8Practical Implications for Digital Pedagogies in Science Education
Chapter FIVE
SUMMARY, CONCLUSION AND RECOMMENDATIONS
- CONCLUSION AND RECOMMENDATIONS
- 5.1Summary of Key Findings on Developing and Validating the Framework
- 5.2Conclusions on the Efficacy of Interactive Digital Pedagogies for Inquiry Skills
- 5.3Contributions to Theoretical and Practical Knowledge in Science Education
- 5.4Recommendations for Educators and Curriculum Developers
- 5.5Policy Implications for Integrating Digital Pedagogies into Science Curricula
- 5.6Limitations of the Study and Methodological Constraints
- 5.7Suggestions for Future Research on Digital Inquiry Pedagogies and Frameworks
Thesis Abstract
Scientific inquiry skills are fundamental to developing competent scientists and fostering critical thinking among learners; however, traditional pedagogical approaches often inadequately support the cultivation of these skills in digital learning environments. This study addresses this gap by developing an integrated framework aimed at enhancing scientific inquiry through the strategic use of interactive digital pedagogies. The primary aim is to construct, validate, and evaluate a comprehensive framework capable of guiding educators and technologists in designing effective digital interventions that improve students' inquiry competencies. Specific objectives include identifying key interactive digital pedagogies that influence scientific inquiry, examining the relationship between digital interactions and inquiry skills development, and proposing a practical model grounded in empirical evidence to inform practice and policy. The study employs a mixed-methods research design, integrating qualitative and quantitative approaches to achieve a holistic understanding of the phenomena. The population comprises science teachers and senior secondary school students in regions where digital learning resources are increasingly integrated into science education. A stratified random sampling technique is used to select 300 students across 15 schools, and 30 science teachers are purposively sampled for interview sessions to gain deeper insights into pedagogical practices. Data collection instruments include a validated inquiry skills assessment test, structured questionnaires on digital pedagogies, and semi-structured interview guides. The inquiry skills test, adapted from standardized instruments, measures students' abilities in hypothesizing, experimenting, data analysis, and interpretation, with an internal consistency reliability coefficient of 0.89. Questionnaires employ a five-point Likert scale to assess students’ perceptions of digital pedagogies, while interviews explore teachers’ instructional practices related to digital inquiry. Data analysis involves descriptive statistics for summarizing demographic and baseline variables, followed by inferential analysis using multiple regression and structural equation modeling (SEM) to identify significant predictors of inquiry skills development, and to test the hypothesized relationships within the framework. Thematic analysis is applied to qualitative interview data to elucidate contextual factors influencing digital pedagogical effectiveness. Confirmatory factor analysis (CFA) validates the constructs within the proposed framework, and model fit indices (CFI, TLI, RMSEA) are used to assess the robustness of the framework. Ethical considerations include obtaining institutional approval, acquiring informed consent, and ensuring confidentiality and data security. Expected findings suggest that specific interactive digital pedagogies—such as virtual simulations, collaborative online platforms, and inquiry-based digital labs—are positively associated with enhanced scientific inquiry skills. The analysis is expected to reveal that the interplay between these pedagogies and learner engagement significantly predicts inquiry competence, with mediating effects of digital literacy levels. The validated framework will delineate the key components and processes necessary for effective digital inquiry instruction, providing empirically grounded guidelines for practitioners. This research advances knowledge by contributing a theoretically sound, empirically validated framework that synthesizes digital pedagogical strategies with inquiry-based science education, filling a notable gap in current literature. It demonstrates the critical role of specific interactive digital tools in fostering inquiry skills, offering a scalable model for integration into diverse educational contexts. It also provides evidence-based recommendations for curriculum developers, educators, and policymakers on leveraging digital technologies to improve science learning outcomes. The study concludes that adopting the framework can substantially enhance the design and implementation of digital inquiry-based science instruction. It advocates for targeted professional development for teachers, the integration of validated digital tools into curricula, and the continuous assessment of inquiry skills through digital platforms. Future research is recommended to explore longitudinal impacts of the framework across different educational levels and cultural settings, as well as technological advancements that could further optimize digital inquiry pedagogies.
Thesis Overview
This research aims to develop a clear framework that can be used to improve students' scientific inquiry skills by using interactive digital teaching methods. Scientific inquiry skills involve the ability to ask questions, plan experiments, gather and analyze data, and draw conclusions—skills essential for understanding science processes deeply. Currently, many science education approaches rely heavily on traditional methods, which might not fully engage students or develop these skills effectively, especially in digital learning environments. The study addresses this gap by exploring how interactive digital tools and pedagogies can foster better inquiry skills and how these can be systematically integrated into science teaching.
The researcher will start by reviewing existing literature and theories related to scientific inquiry, digital learning, and interactive pedagogies, focusing on models like constructivism and multiple intelligences theory. Next, the study will involve designing an intervention—an instructional framework that uses digital tools like simulations, virtual labs, and collaborative platforms. Data will be collected from a sample of around 200 high school or college students through pre- and post-tests, questionnaires, and observation of classroom activities.
Quantitative analysis will involve statistical techniques such as paired t-tests and regression analysis to assess the impact of the digital pedagogies on students' inquiry skills. Qualitative data from interviews or open-ended survey responses will be analyzed using thematic analysis to explore students’ experiences and perceptions. The study aims to produce a validated framework that teachers can apply to enhance inquiry skills effectively through digital means.
The expected contribution of this research is a practical, evidence-based model that integrates digital tools into science education to develop inquiry skills. The findings will provide insights into effective digital pedagogies and inform policy and curriculum design. Ultimately, the study anticipates that students engaged with this framework will show improved scientific inquiry abilities, fostering deeper understanding and interest in science. Recommendations will include strategies for teachers to implement the framework and suggestions for future research to refine digital inquiry methods further.