IMPACT OF INSTRUCTIONAL RESOURCES ON PHYSICS STUDENTS’ ACADEMICS ACHIEVEMENT: A CASE STUDY OF GOVERNMENT SCIENCE SCHOOL LAFIA, NASARAWA STATE

TOPIC: IMPACT OF INSTRUCTIONAL RESOURCES ON PHYSICS STUDENTS’ ACADEMICS ACHIEVEMENT: A CASE STUDY OF GOVERNMENT SCIENCE SCHOOL LAFIA, NASARAWA STATE

THIS TOPIC IS ALSO SUITABLE FOR: 
1-Department of Education

2-Department of Science Education

3-Department of Curriculum Studies

This research material contains:

1-Chapter One to Five

2-Recent References/citations

3-Tables/Charts/Graphs in Chapter Four

4-Accurate Data Analysis

5-Table of Contents

6-Questionnaire

ABSTRACT
The aim of this study is focused on the impact of instructional resources on physics students' academic achievement: a case study of Government Science School Lafia, Nasarawa State. The study specifically was carried out to evaluate the availability of instructional resources for teaching physics at Government Science School Lafia, ascertain the role of instructional resources in facilitating the effective teaching and learning of physicsd at Government Science School Lafia, ascertain the impact of instructional resources on student learning experience and learning outcome in physicse at Government Science School Lafia, and assess the impact of instructional resources on the academic achievement of physics students at Government Science School Lafia. The research adopted the survey descriptive design, and with the aid of Yamane (1967), the researcher selected seventy-four (74) participants. A self-structured questionnaire was issued to the respondent, of which seventy-one (71) responses were retrieved and validated for the study. The study made use of descriptive analysis and inferential statistics, where data from the field survey was analyzed using simple percentages, means, and standard deviations presented in frequencies and tables. A hypothesis test was conducted using the ANOVA Statistical Package for the Social Sciences (SPSS v.23). Findings of the study revealed that instructional resources significantly enhance students’ academic performance, with students agreeing that access to resources improves their understanding of complex concepts (X̄ = 3.55) and boosts exam confidence (X̄ = 3.59). Textbooks (X̄ = 3.62), laboratory equipment (X̄ = 3.52), and visual aids (X̄ = 3.55) were identified as the most commonly used resources. Teachers’ effective utilization of resources improved engagement (X̄ = 3.49) and retention of information (X̄ = 3.55). However, challenges such as insufficient funding (X̄ = 3.59), outdated materials (X̄ = 3.55), and poor internet connectivity (X̄ = 3.52) were significant barriers. Therefore, the study recommends increased funding for instructional resources, regular teacher training on resource utilization, integration of modern technology, and improved laboratory facilities. Policies ensuring equitable distribution of resources among schools were also suggested. These findings highlight the critical role of instructional resources in improving students’ academic outcomes and call for collective efforts to address the identified challenges. Implementing the recommendations will enhance the quality of physics education in Government Science School, Lafia, and similar contexts.

Keywords: Instructional resources, physics education, academic achievement, teaching challenges, resource utilization.

CHAPTER ONE
INTRODUCTION (Preview)
1.1 Background to the Study
Science is critical to any nation's progress in many sectors, particularly scientific and technical improvement. It consists of three subjects—biology, chemistry, and physics—and, if well-developed, will serve as a catalyst for educational training, public awareness, values, behavior, and lifestyles necessary for long-term human and capital growth, as stated by Okoli, Obiajulu, & Ella (2020). Apparently, physics is a cornerstone of scientific education, serving as a bridge to understanding natural phenomena and contributing to advancements in technology and engineering. Abdullahi (2021) described physics as a study of the science of the physical world in its relation to energy, and the tools of physics can be used to explain, describe, and understand everything in the world. Nwosu & Chinedu (2021) argued that the majorityd of the world’s inventions, appliances, tools, and building construction are made possible through the application of the principles of physics.e The keyboard instrument, communication gadgets, clinical thermometer, x-ray machine, firing gun, bicycle, motor car, camera, radio, and television are a few of the many inventions and discoveries of man that require the knowledge of physics for their understanding and how they operate.

As a subject that requires both theoretical knowledge and practical application, the quality of physics education is heavily influenced by the resources available for teaching and learning. Instructional resources as adapted by Remillard & Heck (2024) are tools, materials, and facilities used to support teaching and learning activities in educational settings. Onuoha & Ibrahim (2020) assert that instructional resources, which include laboratory equipment, visual aids, and teaching materials, play an essential role in facilitating comprehension and student engagement. Without these resources, students may struggle to grasp abstract concepts that are integral to physics, leading to poor academic outcomes. According to Ayodeji (2023), instructional resources are sin qua non, as true learning of scientific phenomena needs constant social interactions between students and teachers on one side and between students and daily life events on the other, hence bridging the known gap between the classroom and the real world, which improves student critical thinking on science subjects.

Globally, the importance of instructional resources is well-recognized. Developed countries such as the United States and Germany have incorporated advanced instructional tools, including computer simulations, interactive digital platforms, and well-equipped laboratories, to enhance the learning experience (Chivana & Lee  2020). These educational tools have been shown to boost students' understanding of complex scientific principles and improve their academic performance. Mudasin (2023) pointed out that students’ academic performance is vital for reflecting comprehension, knowledge, retention, and overall achievement. Beyond grades and test  scores,  it  includes  critical  thinking,  problem-solving,  and  creativity. Busari (2024) added that when students perform excellently in science subjects like physics, it benefits society through their positive contributions and innovation, as well as impacts students' mental and emotional well-being, and opens doors to future opportunities like higher education, scholarships, and job placements.

In contrast, many developing countries face challenges in providing adequate instructional resources. In Africa, disparities in educational resource allocation are evident. Ekundayo and Alonge (2022) ascribed the problem of students’ declining academic performance in science subjects like physics to a variety of variables, including teacher quality, household factors, government factors, and a lack of educational resources. To them, the availability of educational resources is critical because of its role in the achievement of educational objectives, and instructional resources particularly are a unique educational input required for the entire development of students' skill acquisition and literacy. Based on these, Adebayo (2022) reckoned that while some nations like South Africa are making strides in educational advancements, others struggle with resource shortages due to economic and policy constraints. The consequences of these disparities are reflected in student performance, with those in resource-rich environments generally performing better than their peers in under-resourced settings.

In Nigeria, physics is one of the science subjects taught at the secondary school level of the Nigerian educational system. Since its introduction into the curriculum, physics as one of the science subjects has remained one of the most difficult subjects in the school curriculum. While educational reforms have emphasized the importance of science and technology, practical implementation is often limited by funding constraints and policy inefficiencies (Olufemi & Okonkwo, 2024). Schools across various states, including Nassarawa, frequently report insufficient laboratory equipment, outdated instructional materials, and a lack of teaching aids, which hinder effective teaching, particularly in subjects like physics that require practical demonstrations (Usman, 2023). To buttress this, a study conducted by Olatunji and Abiodun (2020) revealed that schools with inadequate instructional resources reported lower academic achievement among students compared to those equipped with essential learning tools.

Put together, the significance of instructional resources in physics education extends beyond theoretical understanding; it influences students' ability to conduct experiments, develop problem-solving skills, and build a foundation for further studies in science and engineering fields (Yusuf & Bello, 2022). Therefore, it is essential to investigate the specific impact that instructional resources have on the academic achievement of physics students, particularly in locales where resources are limited, such as in Government Science School Lafia.

1.2 Statement of the Problem

Over the years, several studies have revealed that the performance of Nigerian students in secondary school physics was generally and consistently poor. Owing to the fact that science subjects, especially physics, are resource intensive Onasanya and Omosewa (2021) stressed that a professionally qualified science teacher, no matter how well trained, would be unable to put his ideas into practice if the school lacks equipment and instructional resources for him to translate his competence into reality. Onwa (2022) opined that different instructional resources of the teacher are necessitated by the fact that the learners have their differences and on the fact that learning is more effective if it takes place through the five senses of hearing, seeing, testing, touching, and smelling.

Bizarrely, despite the recognition of the importance of instructional resources in improving learning outcomes, there remains a significant gap in their availability and effective use in Nigerian schools of which Government Science School Lafia, which is positioned as a leading science institution in Nasarawa State is not exempted. The West Africa Senior School Certificate Examination (WASSCE) results in the state revealed that many candidates perform below average in Physics (external examiner report of 2016, 2017 and 2023).  Akhideno (2005) stated that though there has been a steady increase in the number of students offering science subjects over the years, their achievement has continued to be unsteady. Olalekan & Ochanya (2020) opined that the problem sometimes is that it may be very difficult to find some of the instructional resources for the teaching of physic in schools adequately. Howbeit, reports by Usman (2023) indicate that without adequate resources, students are limited to rote learning and theoretical knowledge, which can impede their ability to apply concepts in real-world contexts. Yakubu & Habib (2021) in their study emphasized that poor instructional resources creates a learning environment where students may pass exams but lack the deeper understanding needed for advanced education and professional pursuits. This inadequacy not only affects students' academic achievements but also limits their interest and participation in science-related careers.

While many studies on science education in Nigeria have highlighted the general importance of instructional resources, few have focused specifically on their impact on Physics education at the secondary school level in Nasarawa State. This creates a contextual gap that this research aims to address. More so, through observation, the combined effects of both modern and traditional teaching aids have not been comprehensively analyzed. Although government policies advocate for improved science education and the provision of instructional resources, the actual implementation often falls short of expectations. The present study, therefore, aims to fill these literature and practice gaps by providing empirical evidence on the impact of instructional resources on Physics students' academic performance in Government Science School Lafia, Nasarawa.

1.3 Objectives of the Study

The primary objective of this study is focused on impact of instructional resources on Physics student’s academic achievement; A case study of Government Science School Lafia, Nasarawa State. Specifically, the study seeks to:

i.Evaluate the availability of instructional resources for teaching Physics at Government Science School Lafia,

ii.Ascertain the role of instructional resources in facilitating the effective teaching and learning of Physics at Government Science School Lafia,

iii.Ascertain the impact of instructional resources on student learning experience and learning outcome in Physics at Government Science School Lafia,

iv.Assess the impact of instructional resources on the academic achievement of Physics students at Government Science School Lafia.

Other parts of chapter one include:
1.4 Research Questions

1.5 Research Hypotheses

1.6 Significance of the Study

1.7 Scope of the Study

1.8 Operational Definitions of Terms

CHAPTER TWO
REVIEW OF LITERATURE (Preview)
This chapter critically examines relevant literature that would assist in explaining the research problem and, furthermore, recognizes the efforts of scholars who had previously contributed immensely to similar research. The chapter intends to deepen the understanding of the study and close the perceived gaps. This chapter therefore focuses on the concept of Physics, Concept of instructional resources, types of instructional resources, the use of instructional resources in the teaching and learning of physics, etc. The chapter is sub-grouped into the following major headings:
Conceptual Framework

Theoretical Review

Empirical Review

Summary of Literature Review

CHAPTER THREE
METHODOLOGY (Preview)
Presented below is a snapshot of key areas of the study methodology, the full and detail chapter three methodology is contained in the instant download document.

Research Design: The study adopted a mixed-methods research design.

Population of the Study: The population of the study comprises Physics students of Government Science School Lafia, Nasarawa State.

Sample Size Determination: The study adopted the Taro Yamane (1967) formula to determine a sample size of 74 participants.

Sampling Technique: The study employed a stratified and convenience sampling technique to select the individual respondents.

Research Instrument: The study utilized a self-developed questionnaire as the instrument for data collection.

Methods of Data Analysis: The collected data were analyzed using frequencies and mean scores to summarize and present the responses. Inferential statistics, specifically Pearson Chi-square, were used to test the hypotheses using SPSS version 23.
Full outline for chapter three;
3.1 Research Design

3.2 Area of the Study

3.3 Population of the Study

3.4 Sample and Sampling

3.5 Instrument for Data Collection

3.6 Validity of the Instrument

3.7 Reliability of the Instrument

3.8 Method of Data Collection

3.9 Method of Data Analysis

CHAPTER FOUR: DATA PRESENTATION AND ANALYSIS
MAJOR FINDINGS (Preview)
The analysis results were presented in tables and charts. Based on the results obtained from the analysis, the following major findings were made:

i. The study found that instructional resources positively influence the academic achievement of physics students in Government Science School, Lafia, as evidenced by a mean range of 3.18–3.55 and a grand mean of 3.38, which is above the acceptance benchmark of 2.50. This was further confirmed by the result of the corresponding hypothesis test, which revealed an F-calculated value of 137.859, F-tabulated value of 3.260, and p-value of 0.000 (p < 0.05), leading to the rejection of the null hypothesis. This implies that the availability of instructional resources significantly influences students' academic achievement in physics by improving their understanding of concepts, examination confidence, problem-solving abilities and overall academic performance.

ii. The study found that physics textbooks, practical demonstrations, visual aids, laboratory equipment, handouts and library facilities are among the most commonly used instructional resources in teaching physics in Government Science School, Lafia, as evidenced by a mean range of 2.80–3.66 and a grand mean of 3.35, which is above the acceptance benchmark of 2.50. This implies that although different instructional resources are used in teaching physics, textbooks constitute the most commonly used resource, while interactive technology and online resources are comparatively less utilized in the school.

iii. The study found that students taught with adequate instructional resources demonstrate better academic performance and understanding of physics concepts than those taught without adequate instructional resources. This is evidenced by the responses to the eight questionnaire items, where the number of respondents who answered positively (Yes) ranged from 54 to 62 out of 71 respondents, representing approximately 76.1%–87.3% of the respondents. This implies that access to adequate instructional resources gives students an advantage in understanding physics concepts, performing better in tests, completing assignments and overcoming learning difficulties. However, these descriptive responses indicate respondents' perceptions and do not independently establish a statistically significant difference between the two groups.

iv. The study found that teachers' utilization of instructional resources positively influences students' understanding of physics concepts, as evidenced by a mean range of 3.49–3.61 and a grand mean of 3.53, which is above the acceptance benchmark of 2.50. This was further confirmed by the result of the corresponding hypothesis test, which revealed an F-calculated value of 142.218, F-tabulated value of 4.384, and p-value of 0.018 (p < 0.05), leading to the rejection of the null hypothesis. This implies that teachers' effective utilization of instructional resources significantly improves students' understanding of physics concepts by making abstract concepts easier to visualize, promoting active participation, enhancing knowledge retention and facilitating the practical application of physics principles to real-life situations.

v. The study found that teachers face several challenges in accessing and utilizing instructional resources in teaching physics in Government Science School, Lafia, as evidenced by a mean range of 3.49–3.59 and a grand mean of 3.53, which is above the acceptance benchmark of 2.50. This implies that inadequate availability of instructional resources, insufficient school funding, poor internet connectivity, outdated teaching materials, inadequate teacher training, unconducive classroom environments, limited laboratory equipment and shortages of teaching support staff constitute major challenges affecting the effective utilization of instructional resources in physics teaching.

CHAPTER FIVE: DISCUSSIONS OF FINDINGS
This chapter covers the following outline:

5.1 Summary

5.2 Contribution to Knowledge

5.3 Conclusion

5.4 Recommendations

5.5 Suggestion for Further Research

Reference
Appendix

UPLOADED BY MIRACLE