DETERMINATION OF DIFFICULT TOPICS IN PHYSICS CURRICULUM AS PERCEIVED BY SENIOR SECONDARY SCHOOL PHYSICS TEACHERS AND STUDENTS IN IMO STATE

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ABSTRACT

This study focused on Determination of Difficult Topics in the Physics Curriculum as Perceived by Senior Secondary School Physics Teachers and Students in Imo State. A descriptive survey research design was used for the study. Five research questions guided the study and three null hypotheses were formulated for the study. The population of the study was made up of 6845 physics students and teachers in Imo state. The sample comprises of 192 students and 48 teachers in two Educational Zone of Imo state, with a total sample of 240. This sample was drawn from eight Local Government Areas out of seventeen Local Government Areas in the Zones using multi-stage sampling technique. The instrument used for data collection was Determination of Areas of Difficult Topics in the Physics Curriculum as Perceived by Senior Secondary School Physics Teachers and Students (DADTPC) based on the purpose of study and validated by three experts in the Department of Science Education, Michael Okpara University of Agriculture, Umudike. The test-re-test method of reliability of the instrument was used for DADTPC and data obtained were analyzed using Pearson Product Moment Correlation coefficient of 0.85. All research questions were analyzed using mean and standard deviation. t-test of independent was used to test hypothesis and chi-square statistic was used to test the null hypotheses 2 and 3 at 0.05 level of significance. The results of the work analyzed revealed that the topics in Physics curriculum which teachers and students Perceived to be difficult are Equation of uniformity accelerated motion, simple harmonic motion, Heat Energy, Electric Charges, linear momentum, Mechanical Energy, Production and description and Property of a field, Gravitational field, Electric field and Magnetic field, simple A.C. circuit, Fluids at rest and in Motion, Models of the action, Energy Quantization, Wave- particles paradox. There was no significant difference between the mean rating of Physics Teachers and Students in the perceived areas of difficult topics in the senior Secondary School Physics curriculum. Based on the findings, it was recommended that schools, state and federal ministry of education should make frantic efforts to expose teachers to refresher courses in order to teach the difficult topics more effectively.





TABLE OF CONTENTS

Cover page                                                                                                                             

Title page                                                                                                                     i

Declaration                                                                                                                              ii

Certification                                                                                                                             iii

Dedication                                                                                                                               iv

Acknowledgements                                                                                                                 v

Table of Contents                                                                                                                   vi

List of Tables                                                                                                                           x

List of Figures                                                                                                                         xi

List of Appendices                                                                                                                  xii

Abstract                                                                                                                                   xiii

CHAPTER 1: INTRODUCTION                                                                                            

1.1 Background of the Study.                                                                                                             1

1.2 Statement of the Problem                                                                                                              5

1.3 Purpose of the Study                                                                                                         6

1.4 Research Questions                                                                                                            7

1.5 Hypotheses                                                                                                                        7

1.6 Significance of the Study.                                                                                                            8

1.7 Scope of the Study.                                                                                                          9

CHAPTER 2: LITERATURE REVIEW                                                                                                            

2.1  Conceptual Framework                                                                                     10

2.1.1 Concepts of Physics                                                                                                       10

2.1.2 Scope and Importance of Physics                                                                                  16

2.1.2.1 Importance of Physics for Human Life                                                                      18

2.1.3 Organization of the Senior Secondary School Physics Syllabus                                   19

2.1.4 Concepts of curriculum                                                                                                  20

2.1.4.1 Concept of curriculum implementation.                                                                     27

2.1.4.2 Strategies in curriculum implementation.                                                                    28

2.1.5 Essential Features of Physics Curriculum in Nigeria                                                     31

2.1.6 Philosophy of Physics Curriculum in Nigeria                                                    32

2.1.7 Problems Facing Implementation of Physics Curriculum                                              34

2.1.8 Perceptions on physics curriculum                                                                                 39

2.1.9 Other Concerns: Gender Issues                                                                                     45

2.1.10 Effect of Teachers Qualification                                                                                 51

2.2 Theoretical Framework                                                                                         53

2.2.1 Critical Education Theory by John Dewey                                                                    53

2.3 Empirical Studies                                                                                                              57

2.4 Summary of the Literature                                                                                                60

CHAPTER 3: METHODOLOGY                                                                    

3.1 Design of the Study                                                                                                          62

3.2 study of Area                                                                                                                    62

3.3 Population of Study                                                                                                          63

3.4 Sample and Sampling Technique                                                                                      63

3.5 Instrument for Data Collection                                                                                         64

3.6 Validation of the Instrument                                                                                            64

3.7 Reliability of the Instrument                                                                                             64

3.8 Methods of Data Collection                                                                                             65

3.9 Methods of Data Analysis.                                                                                               65

CHAPTER 4: RESULTS AND DISCUSSION

4.1 Results                                                                                                                             68

4.2 Major Findings of the Study                                                                                            73

4.3 Discussion of Findings                                                                                                     75

CHAPTER 5: SUMMARY, CONCLUSION AND RECOMMENDATIONS         

5.1  Summary of the Study                                                                                                      78

5.2  Conclusion                                                                                                                        79

5.3  Recommendations                                                                                                            80

5.4  Educational Implications of the Study                                                                             81                                          

5.5  Limitations of the Study                                                                                                   82                                                             

5.6  Suggestion for Further Research                                                                                      83            

      References                                                                                                                        84        

      Appendices                                                                                                                       95

 

 

 

 


 

 

 

LIST OF TABLES

Table                                                                                                                                    Page

 

4.1:      Mean and standard deviation responses on topics in physics curriculum

            teachers perceived to be difficult                                                                                 66

 

4.2:      Mean and standard deviation responses on topics in physics curriculum

            students perceived to be difficult                                                                                 67

 

4.3:      Means and standard deviations showing influence of teachers’ qualification

on the perceived areas of difficult physics topics in the senior secondary

school physics curriculum                                                                                             69

 

4.4:      Means and standard deviations showing influence of gender on student    

            perception of difficult topics in physics curriculum                                                     69

 

4.5:      Means and standard deviations showing strategies required to improve the

teaching and learning of difficult topics in the physics curriculum                              70

 

4.6:      t-test analysis of the difference between the mean rating of physics teachers

            and students in the perceived areas of difficult topics in the physics curriculum        71

 

4.7:      chi-square statistic on perception of physics teachers with respect to educational

            qualification                                                                                                                  72

4.8:      chi-square statistic on perception of physics students with respect to gender             73

 

 

 

                

 

 

 

 

 

LIST OF APPENDICES

Appendix                                                                                                                             Page

1  Questionnaire on assessment of difficult topics in physics curriculum                                95 

2  Computation of the reliability analysis                                                                               106                                                                                                                                                                                    

3  Computer output of  research question and hypotheses analyses                                       107                        

                                                                                                                                                                                     

 

 


 

 

CHAPTER 1

INTRODUCTION


1.1 BACKGROUND OF THE STUDY

The term curriculum has various interpretations by different scholars in the field of curriculum development. These interpretations differ from one another in accordance with core emphasis and views from the experts concerned. Tanner and Tanner (2010) defines curriculum as the planned and guided learning experiences and intended outcomes, formulated through the systematic reconstruction of knowledge and experiences under the auspices of the school, for the learner’s continuous and willful growth in personal social competence. Gbamanja (2010) also describe curriculum as the totality of experience given to the learner by the school. The definitions highlight the school as the centre for curriculum implementation. The curriculum as the core of education is structured to achieve national educational goals for the development of the learners and conformity with society view. The Physics curriculum used in the Nigerian secondary schools before and after independence in 1960 was traditionally oriented, the content was insufficient of learning experience and the teaching of Physics was teacher-centered (Okonkwo, 2016; Ogunleye, 2019). By implication, there was little or no avenue for experimentation, evaluation was based on recall of facts leading to rote memorization therefore reducing student’s enthusiasm and enrollment in Physics.

 

Physics is a branch of science concerned with the nature and properties of matter and energy. The subject matter of Physics includes mechanics, heat, light and other radiation, sound, electricity, magnetism and the structure of atoms. Physics is an important subject for economic, scientific and technological development (American Physics Society, 2018; Zhaoyao, 2012). In 1985, the Federal Government of Nigeria (FME, 2019) introduced the 6-3-3-4 system of education. As a result, there were critical adjustments made in the secondary school Physics curriculum. The general objectives of the Physics curriculum as stated in the curriculum document (FME, 2019) are to:

  1. Provide basic literacy in Physics for functional living in the society
  2. Acquire basic concepts and principles of Physics as a preparation for further studies
  3. Acquire essential scientific skills and attitude as a preparation for the technological application of Physics.
  4. Stimulate and enhance creativity.

The general sense for the secondary school Physics programme encompass three main objectives; acquisition of relevant knowledge with understanding, ability to handle and process information and problem solving through acquired knowledge, experimental skills and scientific investigation. Contrary to the intentions of the general objectives of Physics, many students that sat for the external examination are still below the total pass at credit level in Physics (Ogunleye, 2012).

Empirical studies from the field of Physics Education Research (PER) have outlined essential suggestions about Physics curriculum which are generally accepted and believed to widen the knowledge and increase the horizon of understanding of Physics by learners (Ogunleye, 2012; Doug, 2010). Among the essential suggestions by Ogunleye (2012) are:  the method of teaching Physics should be guided discovery instead of the traditional lecture method used in teaching the subject. This was recommended due to the fact that, learning efficiency takes place during explanation, experimentation and discussion; there should be interaction between the Physics teacher and the students. In this case, it is believed that if genuine and helpful interaction exists between the teacher and students during teaching and learning, the students will be able to inform teachers what they find difficult in Physics thereby reducing the difficulties they (students) encounter (Adeniji, 2019).

Teaching methods are the most important techniques employed by teachers to realize the objectives of a lesson Affifi and Clark (2016). Thus, teachers of all disciplines including Physics use various teaching methods for achieving lesson objectives. For Physics students to achieve their full potential in schools, it is essential that teachers engage them in the classroom for effective teaching practices (Affifi & Clark, 2016).

Classroom based investigation has been able to determine effective research-based teaching practices that are related to positive learning outcomes. In a review of research studies that showed an impact on student achievement and learning, Adolphus and Aderonmu (2013) summarized effective teaching methods and outlined five teaching behaviours that were supported by research and to which teachers should pay attention. These teaching methods will promotes’ the implementation of Physics Curriculum (Affifi  & Clark, 2016).

The Physics curriculum or syllabus has been structured to cover three years of senior secondary school programme. Each year's work consists of a number of sections with each section comprising a number of units. There are six main sections. Section one consists of concepts such as motion, forces and energy. Different types of motion, effects of force on motion and nature of energy are to be discussed. Topics such as thermal Physics where heat and temperature are to be discussed in section two. Section three treats the concepts of waves under which characteristics of wave motion including that of light and sound waves are to be discussed. Electric and magnetic fields are treated in section four. Under this section, the major role of magnetic in instrumentation and machinery especially, in utilization of electromagnetic fields in the generation and storage of electricity are emphasized. Section five provides a guide to teaching atomic and nuclear Physics where characteristics of atom, the concept of photoelectric effect and its applications, the x-rays and the peaceful uses of nuclear energy are to be discussed. Guidance in teaching electronics were characteristics and application of semi-conductor diodes, transistors in voltage stabilization, amplification of signals and electric switching is provided in the last section (Affifi & Clark, 2016).

In Nigeria, the need to re-examine both what to teach in science and how to teach it led both institutional and professional bodies to identify themselves with national efforts toward curriculum reform in sciences (Adeyegbe, 2014). For example, the Science Teachers Association of Nigeria (STAN) had taken initiative in the science curriculum development. Thus in 1968, the Federal Ministry of Education and the Comparative Education Study and Adaptation Centre (CESAC), set up curriculum development committee in each of the following subjects biology, chemistry and Physics. These bodies, including the National Education and Research Council (NERC) made immense contributions towards improving science education. All these have not only modernized science teaching, but stimulated interest among Nigerian youths, science educators and government in science related courses. It is worthy to note that members of STAN still meet from time to time to review and assess progress made so far, and organize workshops, seminars, conferences, among others to enlighten members (science teachers especially) about new development and research studies carried out in the sciences and science education in general.

Having  teachers and students’ views about topics they find difficult in Physics can provide valuable information to the curriculum planner preparing the subjects curriculum, choosing the course textbooks, and employing the curriculum in a way that lessens students’ difficulties of understanding and learning of Physics. Carter and Brickhouse (2018) revealed that Heat energy, Production and description and property of a field, Gravitational field, Electric field and Magnetic field among others are perceived to be difficult by teachers and students. According to Carter and Brickhouse (2018) schools administrators views of difficulties influence choice of curriculum, implementation of curriculum, and the nature of evaluation in Physics subjects. Therefore, perceptions of difficult topics are central to the classroom in secondary school Physics curriculum. Hence need to determined difficult topics in Physics as perceived by Physics teachers and students in Imo State.


1.2 STATEMENTS OF THE PROBLEM

The desire to pursue Physics at higher levels is influenced by the success rate and foundation a student receives in Physics at the secondary school levels.  Research literature from countries around the globe provides evidence of much commonality in the types of problems and issues confronting Physics, especially at the secondary levels. Issues such as poor performance in Physics, low enrollment in Physics courses at the upper secondary and tertiary levels, as well as poor interest and attitudes to Physics have plagued the education systems of many countries for decades. Yet, despite numerous investigations into these areas, which served to inform various proposals and recommendations from reputable researchers and organizations on approaches and strategies to address them, these problems persist. Students are either finding Physics too difficult, or, for various reasons, their interests are being drawn away from science.

There are a variety of reasons why students, especially at the secondary level, may perceive Physics as difficult in comparison to other subject areas. It may be due to how the students perceive the subject based on their experiences with it, or even from information about the subject from other persons. Performance in the 2017 Senior Secondary School Certificate Examination (SSCE) was very poor whereby a total of 1825 candidates representing 11.48% obtained credits in Physics in Imo State (NECO Chief Examinar, 2018). Based on the foregoing, we will ponder and deliberate on the questions like: What areas of Physics topics do Physics teachers’ and students in senior secondary schools perceive difficult in the Physics curriculum? What influence would teachers’ qualification have on their perceived areas of difficulty of Physics topics in the senior secondary school Physics curriculum? What influence would gender have on students’ perceived areas of difficulty of Physics topics in the senior secondary school Physics curriculum? Based on this, the identification of difficult topics in the Physics curriculum as perceived by senior secondary school teachers and students in Imo State is therefore important.       


1.3 PURPOSE OF THE STUDY

The general purpose of the study was to determined difficult topics in Physics curriculum as perceived by senior secondary school teachers and students in Imo State. Specifically, the study sought to;

  1. Examine the perceived areas of difficult Physics topics by teachers in the senior secondary school Physics curriculum.
  2. Examine the perceived areas of difficult Physics topics by students in the senior secondary school Physics curriculum.
  3. Determine the reasons for finding these topics difficulty.
  4. Determine the influence of teachers’ qualification on the perceived areas of difficult Physics topics in the senior secondary school Physics curriculum.
  5. Determine the influence of gender on students’ perceived areas of difficult Physics topics in the senior secondary school Physics curriculum.
  6. Ascertain the strategies required to improve the teaching and learning of difficult topics in the Physics curriculum

 

1.4 RESEARCH QUESTIONS

The following research questions guided the study.

  1. What topics in the Physics secondary schools curriculum do teachers perceive difficult?
  2. What topics in the Physics senior secondary school curriculum do students perceive difficult?
  3. What are the reasons for perceiving the topics difficulty?
  4. What influence does Physics teachers’ qualification have on the perceived difficult topics in Physics senior secondary school curriculum?
  5. What influence does gender have on students’ perception of difficult topics in Physics senior secondary school curriculum?
  6. What strategies are required to improve the teaching and learning of difficult topics in the Physics curriculum?

1.5 HYPOTHESES

The following hypotheses were tested at 0.05 level of significance used for the study:

  1. There is no significant difference between the mean rating of Physics teachers and students in the perceived areas of difficult topics in the senior secondary school Physics curriculum.
  2. Teachers’ educational qualification does not have any significant influence on teachers’ perception of difficult topics in Physics curriculum.
  3. Students’ gender has no significant influence on student perception of difficult topics in Physics Curriculum.

1.6. SIGNIFICANCE OF THE STUDY

The identified areas of difficulty of Physics curriculum would serve as very useful and strong tool to the classroom teachers, students’ curriculum developers, Physics textbook authors, school authorities and educational researchers. The uniqueness of this study is that it extends the search for reasons and areas of difficulty of Physics topics in the Physics curriculum to teachers of Physics who are WAEC markers in the SSCE Physics.

Consequently, the findings of this study would be useful to classroom teachers in creating awareness to Physics teachers about the importance of organizing workshop, seminars and probably in-service training as an avenue to learn more on how best these difficulty topics can be taught.

The findings would also be useful to students in creating early awareness of careful study and allocation of quality time on such difficulty topics so as to encourage preparedness.

Curriculum developers and planners may also derive immense benefits from the findings of the study in the sense that, it would enable them to possess knowledge and disposition to develop methods and activities that would promote students’ inquiry that can enhance students’ understanding of Physics topics.

Textbook authors would benefit from the study because they may see the need to shift emphasis from teacher activities to student activities. It would also sensitize Physics textbook authors on the need to incorporate workbooks along textbooks to enhance class participation and problem solving skills in the learning of Physics.

The study would further assist school authorities in allocation of quality time to Physics lessons through extra lesson or tutorial. The findings may help investigators by providing useful information upon which future research studies in the areas of difficulty of Physics topics can be based.

 

1.7 SCOPE OF THE STUDY

This study was designed to identify areas of difficult topics in the Physics curriculum as perceived by senior secondary school teachers and students in Imo State. The study also examined the influence of teachers’ qualification on the perceived areas of difficulty of Physics topics in the senior secondary school Physics curriculum, the influence of gender on students’ viewed areas of difficulty of Physics topics in the senior secondary school Physics curriculum and recommendations for improvement in the teaching and learning of the identified difficult topics in Physics curriculum.


 

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