Design and evaluate a gamified science curriculum to enhance classroom engagement | Blazingprojects Postgraduate Thesis
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Design and evaluate a gamified science curriculum to enhance classroom engagement

 

Table Of Contents


Chapter ONE

INTRODUCTION

  • 1.1Introduction
  • 1.2Background of the Study
  • 1.3Statement of the Problem
  • 1.4Aim and Objectives of the Study
  • 1.5Research Questions
  • 1.6Research Hypotheses
  • 1.7Significance of the Study
  • 1.8Scope and Delimitation of the Study
  • 1.9Limitations of the Study
  • 1.10Organisation of the Study
  • 1.11Operational Definition of Terms

Chapter TWO

LITERATURE REVIEW

  • 2.1Conceptual Framework of Gamification in Science Education
  • 2.2Theoretical Foundations: Self-Determination Theory and Flow Theory
  • 2.3Empirical Evidence on Gamified Learning and Student Engagement
  • 2.4Review of Existing Science Curricula Incorporating Gamification
  • 2.5Impact of Gamification on Science Learning Outcomes
  • 2.6Teachers’ Perceptions and Challenges in Implementing Gamified Curricula
  • 2.7Student Engagement Metrics in Science Education
  • 2.8Technological Tools and Platforms for Gamifying Science Lessons
  • 2.9Gaps in the Existing Literature on Gamified Science Curricula
  • 2.10Conceptual Model for Designing and Evaluating Gamified Science Curricula
  • 2.11Summary of the Literature Review
  • 2.12Conceptual Diagram of the Proposed Framework

Chapter THREE

RESEARCH METHODOLOGY

  • 3.1Research Design: Quasi-Experimental Design with Pretest-Posttest Control Group
  • 3.2Philosophical Paradigm: Pragmatism and Post-positivism
  • 3.3Population of the Study: Science Teachers and Students in Secondary Schools
  • 3.4Sample Size and Sampling Technique: Stratified Random Sampling of Schools
  • 3.5Data Collection Instruments: Structured Questionnaires, Observation Checklists, and Lesson Plans
  • 3.6Validity and Reliability of Data Collection Instruments
  • 3.7Data Collection Procedure and Timeline
  • 3.8Method of Data Analysis: Quantitative and Qualitative Techniques
  • 3.9Model Specification or Analytical Framework: ANCOVA for Hypotheses Testing
  • 3.10Ethical Considerations: Consent, Confidentiality, and Ethical Approval

Chapter FOUR

DATA PRESENTATION AND ANALYSIS

  • ANALYSIS AND DISCUSSION OF FINDINGS
  • 4.1Data Presentation: Descriptive Statistics of Participants
  • 4.2Engagement Levels Before and After Intervention
  • 4.3Testing of Hypotheses: Effectiveness of Gamified Curriculum
  • 4.4Analysis of Student Academic Performance Data
  • 4.5Teachers’ Perceptions and Observations
  • 4.6Interpretation of Quantitative Results
  • 4.7Interpretation of Qualitative Feedback
  • 4.8Discussion of Findings in Relation to Existing Literature

Chapter FIVE

SUMMARY, CONCLUSION AND RECOMMENDATIONS

  • CONCLUSION AND RECOMMENDATIONS
  • 5.1Summary of Key Findings
  • 5.2Conclusions Derived from the Study
  • 5.3Contributions to Science Education Knowledge and Practice
  • 5.4Practical Recommendations for Curriculum Developers and Teachers
  • 5.5Limitations of the Study and Considerations for Future Research
  • 5.6Suggestions for Further Studies

Thesis Abstract

In contemporary science education, maintaining student engagement remains a persistent challenge, with traditional curricula often failing to stimulate active participation and interest among learners. This study addresses the pressing need to enhance classroom engagement through innovative instructional strategies by designing and systematically evaluating a gamified science curriculum aimed at increasing student motivation, participation, and conceptual understanding. The research specifically aims to develop a comprehensive gamified curriculum integrated within existing science syllabi, implement it in real classroom settings, and assess its effectiveness in fostering higher levels of student engagement compared to conventional methods. The study adopts a mixed-methods research design, combining quantitative and qualitative approaches to provide a nuanced understanding of the curriculum’s impact. The target population comprises 300 secondary school students across three public schools, with a stratified random sampling technique selecting 150 students from grades 9 and 10 to participate as the primary experimental cohort, alongside a control group of equal size experiencing traditional teaching methods. Data collection instruments include standardized engagement questionnaires validated through exploratory and confirmatory factor analysis, classroom observation checklists, focus group discussion guides, and student science achievement tests. The reliability of instruments is ensured through Cronbach’s alpha coefficients exceeding 0.85, while validity is established via expert reviews and pilot testing. Quantitative data are analyzed using descriptive statistics, paired and independent samples t-tests, and analysis of covariance (ANCOVA) to compare engagement levels pre- and post-intervention, whereas qualitative data undergo thematic analysis following Braun and Clarke’s methodology to interpret student perceptions and teacher experiences. Expected findings indicate that the gamified curriculum significantly enhances student engagement levels, with statistically notable increases in participation, attentiveness, and interest in science topics. It is anticipated that students engaged with the gamified content will demonstrate higher gains in science achievement scores compared to their counterparts in the control group. The study also expects to uncover insights into student perceptions of game-based learning, identifying specific game features that contribute most effectively to motivation and classroom interaction. These results are expected to validate the theoretical underpinnings of Self-Determination Theory (Deci & Ryan, 1985) and the Conative Domain of Bloom’s Taxonomy, suggesting that intrinsic motivation and active cognitive engagement are critical mediators of effective science learning. This research contributes to the growing body of knowledge by providing empirical evidence on the effectiveness of gamification strategies tailored for secondary science education within the African educational context, filling a gap left by predominantly Western-focused studies. It offers a replicable framework for curriculum developers, educators, and policymakers seeking to incorporate game-based elements into science teaching practices. The study’s findings are expected to inform best practices in curriculum design, emphasizing the integration of engagement-enhancing strategies grounded in educational psychology and instructional theory. The main conclusion emphasizes that well-designed gamified science curricula are viable tools for transforming traditional classroom environments into dynamic learning spaces that motivate learner participation and foster deeper conceptual understanding. It is recommended that educators adopt game-based pedagogical approaches consistent with student interests and cultural contexts, while policymakers are encouraged to incorporate gamification as a strategic objective in science education reforms. Future research should explore longitudinal effects, the integration of digital gamification tools, and cross-cultural validations to establish broader generalizability and sustainability of gamified learning environments in diverse educational settings.

Thesis Overview

This research focuses on creating and testing a science curriculum that uses game-like elements, known as gamification, to make science lessons more engaging for students. The goal is to find out whether integrating games and game mechanics such as points, competitions, rewards, and interactive challenges into science lessons can improve students’ interest, participation, and understanding of scientific concepts. Engagement is important because it influences students' motivation to learn and their overall academic success. However, many traditional science curricula often fall short of capturing students’ attention, leading to disengagement and low achievement. The researcher will begin by reviewing existing literature on gamification in education and identifying best practices. The next step involves designing a science curriculum that incorporates game features aligned with educational goals. The study will then select a sample of secondary school students, perhaps around 100 students from two classes, using random sampling to assign one class to experience the gamified curriculum and the other to follow the conventional curriculum. Data will be collected through a combination of questionnaires measuring students’ engagement levels, observation checklists during lessons, and students’ academic performance records. To analyze the data, the researcher will use descriptive statistics to describe engagement levels, and inferential techniques such as t-tests or ANOVA to compare the effectiveness of the gamified curriculum against the traditional approach. The study may also include interviews or focus groups to gain deeper insights into students’ experiences. The expected contribution of this research is to provide evidence on whether gamification can be an effective strategy for increasing engagement in science education. It aims to fill a gap in current knowledge by systematically evaluating the impact of gamified curricula in a real classroom setting. The anticipated outcome is that students exposed to the gamified curriculum will show higher engagement and better academic performance, leading to recommendations for educators on how to better design science lessons that motivate students through interactive, game-inspired methods.

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