COMPERATIVE EFFECTS OF MODELS, SIMULATIONS AND CHARTS USAGE ON ACHIEVEMENT AND RETENTION OF SENIOR SECONDARY SCHOOL STUDENTS IN BIOLOGY IN AKWA IBOM STATE

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ABSTRACT

 

The study compared the effects of models, simulations and charts usage on achievement and retention of senior secondary school students in Biology in Akwa Ibom State. Six research questions were posed and six null hypotheses were formulated to guide the study. Pretest posttest non-equivalent groups of quasi experimental design was adopted for the study. The research population was 3310 Senior Secondary 2 (SS11) Biology Students comprising of 1664 males and 1646 females in 25 public secondary schools in Ikot Ekpene Education zone of Akwa Ibom State. Two hundred (200) students comprising of 106 males and 94 females, from four intact classes in four schools, drawn through purposive sampling, formed the sample for the study. Biology Achievement Test (BAT) adapted by the researcher served as instrument for data collection. The instrument was subjected to face and content validation by three experts, two in Biology Education and one in Measurement and Evaluation, all in the Department of Science Education, Michael Okpara University of Agriculture, Umudike, Abia State. The reliability coefficient of 0.82 was established using Spearman Brown Reliability Analysis. The research questions were answered using mean and standard deviation and the hypotheses were tested at 0.05 level of significance using Analysis of Covariance (ANCOVA). Results revealed that there is significant difference in the mean achievement and retention scores of Biology students taught using models, simulations, charts and textbook, with the students taught with simulations having the highest mean posttest and retention scores, followed by models and charts while those taught with textbook had the least mean posttest and retention scores. Based on the findings of the study, it was recommended among others that teachers should make good efforts in incorporating models, computer simulations and/ or charts in their pedagogical practices to enhance academic achievement of learners.







TABLE OF CONTENTS

Title Page                                                                                                                    i

Declaration                                                                                                                  ii

Certification                                                                                                                iii

Dedication                                                                                                                  iv

Acknowledgements                                                                                                    v

Table of Contents                                                                                                       vi

List of Tables                                                                                                              ix

List of figures                                                                                                             xi

Abstract                                                                                                                      xii                                                                                                                                                                                   

CHAPTER 1: INTRODUCTION

1.1       Background to the Study                                                                               1

1.2       Statement of the Problem                                                                               10

1.3       Purpose of the Study                                                                                      11

1.4       Research Questions                                                                                         12

1.5       Hypotheses                                                                                                     13

1.6       Significance of the Study                                                                               14

1.7       Scope of the Study                                                                                         15

CHAPTER 2:            REVIEW OF RELATED LITRATURE

2.1       Conceptual Framework                                                                                   16

2.1.1    Concept of Biology                                                                                        16

2.1.2    Instructional resources                                                                                    17

2.1.3    Models                                                                                                            30

2.1.4    Simulations                                                                                                     33

2.1.5    Charts                                                                                                              41

2.1.6    Academic achievement in Biology                                                                 44

2.1.7    Retention                                                                                                        46

2.1.8    Gender and academic achievement in Science                                               46

2.2       Theoretical Framework                                                                                   48

2.2.1    Stimulus-Response learning theory by B. F. Skinner (1904-1990)                 48

2.2.2    Piaget’s theory of intellectual development (Schemas)                                  50

2.3       Empirical Studies                                                                                            51

2.4       Summary of Review of Related Literature                                                    66

CHAPTER 3: METHODOLOGY

3.1       Design of the Study                                                                                        68

3.2       Area of the Study                                                                                           69

3.3       Population of the Study                                                                                  70

3.4       Sample and Sampling Technique                                                                    70

3.5       Instrument for Data Collection                                                                       71

3.6       Validation of the Instrument                                                                          71

3.7       Reliability of the Instrument                                                                           72

3.8       Method of Data Collection                                                                             73

3.8.1    Experimental procedure                                                                                  73

3.8.2    Control of extraneous variable                                                                        75

3.9       Method of Data Analyses                                                                               76

CHAPTER 4: RESULT AND DISCUSSIONS

4.1       Presentation and Analyses of Data                                                                 77

4.1.1    Research question one                                                                                    77

4.1.2    Hypotheses one                                                                                               78

4.1.3    Research question two                                                                                    80

4.1.4    Hypotheses two                                                                                              82

4.1.5    Research question three                                                                                  84

4.1.6   

Hypotheses three                                                                                            86

4.1.7    Research question four                                                                                   87

4.1.8    Hypotheses four                                                                                              89

4.1.9    Research question five                                                                                    90

4.1.10 Hypotheses five                                                                                              91

4.1.11  Research question six                                                                                      93

4.1.12  Hypotheses six                                                                                                94

4.2       Major Findings of the Study                                                                          95

4.3       Discussion of Findings                                                                                   97

CHAPTER 5: SUMMARY, CONCLUSION AND RECOMMENDATIONS

5.1              Summary of the Study                                                                                    105

5.2       Conclusion                                                                                                      106

5.3       Recommendations                                                                                          106

5.4       Educational Implications of the Findings                                                       107

5.5       Suggestions for Further Studies                                                                     108

REFERENCES                                                                                                        109

APPENDICES                                                                                                          124

 

 

 

 

 

 

LIST OF TABLES

 

1.                  Mean achievement scores of SS11Biology students taught mammalian  digestive system using models, simulations, charts and those taught using textbook.    77                                                                                                          

2.         Summary of analysis of covariance of the mean achievement score of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.         78                          

 

3.         Scheffe’s post-hoc pairwise comparison of the mean post- test scores of students in the four groups.                                                  79

 

4.         Mean retention scores of SS11 Biology students taught mammalian   digestive system using models, simulations, charts and those taught using textbook.                   80

            

5.         Summary of analysis of covariance of the mean retention scores of

            SS11 Biology students taught mammalian digestive system using

            models, simulations, charts and those taught using textbook.                             82

 

6.        Scheffe’s post-hoc pairwise comparison of the mean retention scores

           of students in the four groups.                                       83


7.         Mean achievement scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.                    84

 

8.         Summary of analysis of covariance of the mean achievement  scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.                                  86                                    

9.         Mean retention scores of male and female SS11Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.                           87      

 

10.       Summary of analysis of covariance of the mean retention scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook                    89

 

 

11.       Estimated marginal means of male and female students’ post-test scores by instructional resources.           90

 

12.       Analysis of covariance test for significant interaction effect of using instructional resources and gender on the mean achievement scores

            of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.      92                                                                                               

 

 

13.       Estimated marginal means of male and female students’ retention

            scores by instructional resources.                            93              

 

14.       Analysis of covariance test for significant interaction effect of using instructional resources and gender on the mean retention scores of SS11

            Biology students taught mammalian digestive system using models,

            simulations, charts and those taught using textbook.            94      







        


LIST OF FIGURES

                                                  

1.                Graph of estimated marginal means of male and female students’

post-test scores by instructional resources.                         91

 

 

2.                Graph of estimated marginal means of male and female students’

retention test scores by instructional resources.                             94          

 

 

 

 


 


 

CHAPTER 1

INTRODUCTION


1.1       BACKGROUND TO THE STUDY

Science is the foundation upon which the bulk of the present day technological breakthrough is built. Nations all over the world including Nigeria are striving hard to develop scientifically and technologically. Since the world is becoming more scientific and sophisticated; therefore, all proper functioning of lives depend greatly on science. Different authors have defined the term “Science” according to their own understanding. Owolabi and Oginni (2012) defined science as an integral part of human society. For Eshiet (2015), science is a systematic, precise and objective way to study the natural world.

The major goal of science education is to develop scientifically literate individuals that have high competence for rational thoughts and actions. The objectives of science education in Nigeria include the need to prepare students to observe and explore the environment, explain simple natural phenomena, develop scientific attitudes and apply the skills and knowledge gained through science to solve science-related problems in the environment (Eshiet, 2015).

According to Ogunleye (2012), science is a dynamic human activity concerned with understanding the workings of our world. This understanding helps man to know more about the universe. Without the application of science, it would have been difficult for man to explore the other planets of the universe. In contemporary Nigeria, greater emphasis is placed on science and technological development. As a result, students are encouraged to take up science-related subjects (FRN, 2013). Among the science subjects offered at Senior Secondary School level include: Physics, Chemistry, Agriculture and Biology.

Biology is one of the science subjects that students offer at the senior level in the Nigerian Senior Secondary Schools (FRN, 2013). Biology is a very important science subject and a requirement for further learning of a number of science-related professional courses like Medicine, Pharmacy and Agriculture among others. It is obvious that no student intending to study these disciplines can be successful without adequate knowledge of Biology. Today, Biology pervades literally every field of human endeavour, and plays a fundamental role in educational advancement.

In spite of the importance of Biology in science and technological development, students’ performance in the subject at Senior School Certificate Examinations (SSCE) has been quite unsatisfactory over the years (See Appendix H). The desire to know the causes of the poor performance in Biology have been the focus of researchers for some times now (George, 2016).

A lot of efforts have been made in research work through conferences, workshops and seminars to find solutions to students’ poor performance in Biology but students’ performance in the subject is still below expectations (Umoren, 2018). The poor performance of Students in Secondary School Biology (West African Examination Council Chief Examiners’ Report, 2016) has made it a matter of necessity to think about what can be done to improve the situation. According to Etim (2016), a number of factors have been identified as contributing to poor retention and invariably leading to poor achievement. One of the factors is the teacher’s variable, specifically the teacher’s method of teaching. A report by Ibe-bassey (2018) indicated that most science teachers prefer the traditional expository/lecture method of instruction to activity oriented teaching methods which are student-centred. Many researches also revealed that the prevailing teaching method employ by Biology teachers is talk and chalk method without the involvement of appropriate instructional materials which could help to engage the students actively in teaching and learning process (Abu, 2018). As a complex subject with abstract concepts, the teaching and learning of Biology cannot be handled effectively without the use of appropriate instructional materials because the quality of Biology education bears a direct relationship with the utilization of appropriate instructional materials (Ariyibi, 2014; Adegoke, 2016).   

The National Policy on Education (FRN, 2013) emphasizes the need for teaching and learning of science processes and principles. The policy recommends practical, exploratory and experimental methods of teaching. In this regards, Okebukola (2013) stated that the basic tools used in teaching and learning of science processes are the instructional materials. Udo (2016) opined that the best approach in the teaching of a particular science concept or phenomenon is the presentation of instructional materials to the students in their learning units. Verbal exposition alone does not promote critical thinking abilities and problem solving skills that will enable the students to function effectively in the subject. Okebukola and Jegede (2012) stressed that a professionally qualified teacher, no matter how well trained, would not be able to present his lesson to the students effectively if the school setting lacks instructional resources necessary for him to translate his competence into reality. Therefore, teacher’s ability to teach and impart knowledge to students cannot be justified without the use of appropriate instructional materials (Okebukola, 2013).

Instructional materials are resources or teaching materials which the teacher utilizes in the course of presenting a lesson in order to make the content of the lesson understandable to the learners (Igwe, 2011). The teaching of Biology without the use of appropriate instructional materials could lead to poor achievement of students in the subject (Udo, 2016).

George (2016) has linked poor achievement trend in Biology particularly to the lack of instructional resources in schools. For Ibitoye and Fape (2014), low levels of accomplishment in Biology may be attributed to lack of resources and inadequate laboratory equipment.  Udoma (2017) observed that public schools in Nigeria lacked instructional resources for effective teaching of Biology and other science subject in the classroom. The poor funding of schools by government has hindered the principals from providing the teachers with adequate instructional resources. According to Folorunsho (2014), the poor state of laboratory facilities and inadequate instructional materials has constituted a cog in the wheel of students’ achievement in Biology. This implies that students’ achievement in Biology might be dependent on teachers’ use of instructional resources.

Resources are seen as materials, which help in doing something. For example, flour, sugar and water, serve as resources for the preparation of bread or cake. In the classroom situation, resources are materials or devices that are used to facilitate teaching and learning. Etim (2016) referred to instructional resources as a broad range of instructional materials used by teachers to facilitate effective communication in the classroom. Ibe-bassey (2018) reported that resources in the classroom can be classified into nine broad categories; those that appeal to the sense of sight which are classified as visual resources and those which appeal to the sense of hearing, classified as audio materials. There are those that combine both features and are classified as audio-visual (A-V) materials. Others include: software, hardware, projected or non-projected, printed or non-printed materials.

Nsofor (2012) pointed out that for effective instructional processes, emphasis should be more on those media that appeal to senses of perception. These media include; models, computer simulations, charts, pictures, realia, specimens, mock-ups, video tapes and so on. But in the conventional instructional environment, teachers often teach the way they were taught sometimes using the very same notebooks and textbooks they used as students (Ibe-bassey, 2018).

According to Queen (2012), teachers pose as expert information providers while the students take notes, learn by rote, memorize, regurgitate facts and prepare to reproduce the facts during examinations. There could be competition among the learners and rewards are given on a norm referenced basis or by ranking from best to worst. The conventional way of Biology teaching and learning is based on the assumption that students are passive subjects that store what they learnt as a result of repeated practice and reinforcement (Queen, 2012).

The need for Biology teachers to use appropriate instructional materials is very important. According to Nwosu and Nzewi (2010), Biology has to be communicated to learners in an active and interactive way since it is the study of living things which are best studied in their natural habitats. Nsofor (2016) noted that students’ poor performance in Biology could be as a result of abstract and complex nature of some concepts which are difficult to comprehend. A Biology teacher should be able to guide the students to obtain accurate information in some of these concepts with the use of appropriate instructional resources. Biology teachers should seek for more effective and efficient ways of teaching since the emphasis of teaching is to enable the students apply what is learned during instruction to a new situation (Eshiet, 2015). This has continued to drive researchers towards finding different teaching techniques to facilitate the teaching and learning of Biology in order to make it interesting and instructive to learners. In doing so, a good teacher should plan effectively for the lesson by selecting appropriate instructional resources so as to make the learners the centre of all activities in the course of teaching (Onwioduokit, 2013).

Recent trends and emphasis in Biology education suggest that the teacher should be a “facilitator of learning” as opposed to being a lecturer of facts, concepts, principles and generalization in science. As a result of this trend and emphasis, there had been an expansion in the development of visual materials which could assist the Biology teacher to achieve his objectives in the classroom (Ekpo, 2017). Some of these instructional materials include; computer simulations, charts and models.

Models are 3-dimensional or scaled representation of real objects, used in any instructional situation to present direct, concrete and purposeful learning experiences (Ibrahim, 2018; Eshiet, 2013). The main advantages of models is that they provide the opportunity for students to visualize some ideas, or concepts which would be more difficult to understand if presented in spoken or written words (Okebukola, 2013). Models can be assembled or disassembled to provide the interior views that are not possible with real objects (Ibe-bassey, 2018). For instructional purposes especially in the sciences, the use of models provides for inquiry and discovery learning on the part of learners. Ikitde (2014) stressed that models enhances visual imagery, stimulate interest of learners and boost their perceptions towards the subject. Ekpo (2017) investigated the pattern of instructional materials used by secondary school teachers in Nigeria in two subject areas (Science and Vocational Education) and observed that low percentage of Science teachers used models for teaching despite the fact that models are closely associated with direct, concrete and purposeful learning experience which is very appropriate for handling of sciences.    

Another instructional resource which has the potential to enhance effective teaching and learning of Biology is computer simulation (Chen & Liao, 2015). Computer simulation is one of the modes of Computer-Assisted Instruction (CAI) which gives learners the opportunity to observe a real life experience.  According to Mckinney (2011), one of the most promising computer applications in science instruction is the use of simulations.

Computer simulations permit science teachers to bring rich learning experiences into the classroom (Etiubon, 2011). This is especially the case when simulation shows phenomena that cannot be easily observed in the real word (Rivers & Vockell, 2017).

Computer simulations as instructional medium have gained more popularity and enthusiasm in the past few years (Eke, 2018). In science education, computer simulations provide an opportunity to apply scientific methods to the solution of problems. It provides learners with a rich and variable learning opportunity, in which they can master skills, develop understanding of concepts and strategic thinking (Kulik & Kulik, 2010). Similarly, as suggested by Akpan and Andrew (2016), computer simulation offer a bridge between concrete and abstract reasoning, allow learners to postulate abstract concepts in a more concrete manner, gain an insight into complicated phenomena and relationship, engage learners’ interest and provide the learner with an active role in the learning process. Computer simulated experiments may be a good substitute for laboratory experience in the teaching of some concepts (Frederking, 2015).

A term closely related to computer simulation is fidelity. Fidelity refers to the accuracy with which the computer simulation models a real-world system or phenomena (Alessi & Trollip, 2011). A well-designed simulation can have a high degree of fidelity and facilitate learning by simplifying elements present in a real-world setting (Alessi & Trollip, 2011). Computer simulation may be superior to other learning media such as textbooks and tutorial courseware (Montero, 2014). This is because simulation imitates real-world experiences and may increase students’ intrinsic motivation by engaging them in solving challenging problems in science (Mintz, 2013; Akpan & Andrew, 2016).

Another instructional resource which has the potentials to enhance effective teaching and learning of Biology is the chart. Charts are symbolic representation of abstract information. Generally, a chart is a combination of graphic and pictorial medium used to visualize relationships between key facts and ideas (Ibe-bassey, 2018). It contains clear and well-defined instructional process and is used to express only one major concept or configuration of concepts (Ibe-bassey, 2018). The main advantages of charts is that they provides the opportunity for students to visualize some ideas, or concepts which would be more difficult to understand if presented in spoken or written words (Okebukola, 2013). They are useful in presenting information relating to experience, sequence, classification and organization (Akinbobola, 2014; Olatoye, 2017). There are many types of charts both commercially produced as well as teacher and student made charts (Mackenzie & White, 2015). A good science teacher should be able to guide the students to obtain accurate information from charts (James-inyang, 2015).

 

Another instructional resource which has the potentials to enhance effective teaching and learning of Biology is the use of Biology textbook. Biology textbook like any other textbook is designed as the sole source of information. Chew (2014) asserted that both teachers and learners see Biology textbook as a framework or guide that helps them to organize their learning both inside and outside the classroom. It assists while doing activities and exercises, studying on their own, doing homework and preparing the tests. Biology textbooks are very helpful for teachers who are new in the system (beginners). The materials to be covered and the design of each lesson are carefully spelled out in details. Betty (2010) opined that Biology textbook can serve different purposes for teachers such as; a core resource, a source of supplementary material, an inspiration for classroom activities, and a curriculum itself.

Enohuean (2015) stated that Biology textbook needs to be used judiciously with the following considerations; as a resource for students and teachers, but not the only resource for instruction but as a guide. Betty (2010) added that though Biology textbook enables the users to learn better, faster, clearer and easier, there are learners hindrances and weaknesses in using ready-made textbooks as follows; the textbook is designed as the sole source of information, some textbooks are old or outdated, textbook questions tend to be low level or fact-based, textbook does not take students' background knowledge into account and the reading level of some textbooks are too difficult to comprehend. Hence, the hallmark of teaching and learning is to foster understanding of concepts which may bring about good achievement in the subject (Ampene, 2010; Ingwu, Ogar & Ada, 2015).

Achievement shows how a student performs in a school subject as symbolized by a score or mark in a cognitive achievement test. Studies have contended that cognitive achievement is dependent upon several factors such as instructional materials, instructional methods and quality of learning in consideration of gender. However, there is still need to investigate gender responses to the use of instructional resources.

Gender in this study refers to male or female students. The effect of gender on academic achievement of students has now been attracting attention from researchers and psychologists (Fakorede, 2019). There is however no consensus among scholars on the influence of gender on students’ performance in the sciences. Evidence from studies on gender-related differences in students’ achievement in the sciences is inconclusive (Fakorede, 2019). Some researchers such as Udoma (2017) reported that males are superior to females in science achievement while Udousoro (2013) found out that female students perform better than their males’ counterpart in the sciences. Some studies conducted by Bichi (2010) and Ekeh (2015) revealed that there is no significant difference in the mean achievement scores of male and female students in sciences. In some other reports, Nwosu (2016) established that gender is not a significant factor in student’s achievement in sciences. Ocho (2011) conducted a study on gender differences on student’s achievement in sciences and established that there is no significant difference in the mean achievement scores of male and female students in sciences. Contrary to this, Connell (2013) found out that male students performed better than females’ students in science and mathematics. Ariyibe (2014) carried out a research on gender related differences in Biology; the result showed no significant difference in academic achievement scores of male and female students in Biology.

From the above studies, it is explicit that the issue of gender in science achievement of students has not yet been resolved particularly in relation to Biology and in response to the use of instructional resources. Hence, the need for further study on gender differences in achievement and retention in Biology when exposed to the use of models, computer simulations and charts.

The use of visual representations such as models, computer simulations and charts for Biology instruction in most public secondary schools in Nigeria is not common (Ajelabi, 2014; Adegoke, 2016). Very little is known about the use of computer simulations in learning some concepts in sciences particularly in public secondary schools in Nigeria (Adegoke, 2016). In fact, the use of computer as an aid to teaching and learning in most schools in Nigeria is restricted to very few privately owned schools and public schools (Adegoke, 2016). Thus, much remains to be empirically researched on the effects of models, simulations and charts usage on achievement and retention of senior secondary school students in Biology.

 

1.2       STATEMENT OF THE PROBLEM

The Nigerian society has come to embrace the need for educating its’ populace especially the younger generation who are perceived to be the leaders of tomorrow.  Akwa Ibom state has keyed into this development process and has constituted the ‘free and compulsory education’ up to the secondary school level for students in all the public schools in the state. The ministry of education therefore placed much emphasis on sciences and students are encouraged to take up science subjects such as Physics, Chemistry, Agriculture, Biology, among others. Biology is one of the basic science subjects in Nigerian secondary school education system and it is a core subject for science students. It is therefore a stepping stone for millions of secondary school students for successful career in many area of science such as Medicine, Pharmacy, Biotechnology, Dentistry, Agriculture and Veterinary Science among others; all geared toward improving the quality of life.

In spite all these benefits of Biology, students’ achievement in the subject both in internal and external examinations over the years have not improve to any appreciable extent in Akwa Ibom State. Research studies and West African Examination Council Chief Examiners’ reports on students’ performance in the Senior School Certificate Biology Examinations over the years indicate a persistent trend of students’ poor performance in Biology. Among the factors indicted for students’ poor performance in Biology is failure on the part of Biology teachers to incorporate instructional materials such as models, computer simulations and charts in the teaching and learning process. It is therefore pertinent to ask; “how effective are the usage of models, computer simulations and charts in facilitating academic achievement and retention in secondary school Biology?”  Therefore, this study sought to determine the effects of models, simulations and charts usage on achievement and retention of students in Biology.

 

1.3   PURPOSE OF THE STUDY

The main purpose of this study was to compare the effects of models, simulations and charts usage on achievement and retention of senior secondary school students in Biology in Akwa Ibom State. Specifically, the study aimed to:

1.      determine the mean achievement scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

 

2.      determine the mean retention scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

 

3.      determine the mean achievement scores of  male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

4.      determine the mean retention scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

5.      determine the interaction effect of using instructional resources and gender on the mean achievement scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts, and those taught using textbook.

6.      determine the interaction effect of using instructional resources and gender on the mean retention scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts, and those taught using textbook.

 

 1.4    RESEARCH QUESTIONS

    The following research questions were formulated to guide the study.

1. What are the mean achievement scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook?

2. What are the mean retention scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook?

3. What are the mean achievement scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook?

4. What are the mean retention scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook?

5. What are the interaction effects of using instructional resources and gender on the mean achievement scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts, and those taught using textbook?

6.    What are the interaction effects of using instructional resources and gender on the mean retention scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts, and those taught using textbook?

1.5   HYPOTHESES

The following null hypotheses were formulated and tested at 0.05 level of significance:

 

H01.  There is no significant difference in the mean achievement scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

H02.    There is no significant difference in the mean retention scores of SS11 Biology  

            students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

H03.   There is no significant difference in the mean achievement scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

H04.    There is no significant difference in the mean retention scores of male and female SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

H05.  There is no significant interaction effect of using instructional resources and gender on the mean achievement scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

H06.  There is no significant interaction effect of using instructional resources and gender on the mean retention scores of SS11 Biology students taught mammalian digestive system using models, simulations, charts and those taught using textbook.

   

  1.6   SIGNIFICANCE OF THE STUDY                        

The findings of this study would be of immense benefit to Biology teachers, students, curriculum planners, educational administrators, government and researchers. It is anticipated that the results of the study may provide Biology teachers with a worthy perspective about the use of instructional materials that may aid students’ understanding of the subject.

Biology teachers may also benefit from the study as a source of sensitization on effective use of instructional materials that may improve students’ performance in Biology. The results of the study may provide Biology teachers with relevant information on skills needed as teachers to make Biology lesson real, concrete and interesting to the learners. The results of the study may also help teachers in other fields of study to explore and adopt appropriate instructional materials in teaching some concepts in their areas of specialization. The outcome of the study may provide information for organization of seminars, conferences and workshops for teachers by Ministry of Education and Science Teachers Association of Nigeria (STAN).

To the students, the findings of this study may help to reduce the difficulty in learning and perhaps stimulate their desire towards the subject. The findings of this study when applied correctly in the classroom may help to improve students’ retention and ensure better quality Biology candidates for the senior secondary school certificate examinations. Again, the results of the study may help to produce more qualified candidates for courses in science and technology in tertiary institutions of learning, which in turn may bring about greater improvement in national wealth and development.                      

It is anticipated that the results of the study will help curriculum planners to design curriculum that will underscore the importance of instructional materials usage for Biology instructions. Educational administrators may benefit from this study as a source of enlightenment on the importance of models, computer simulations and charts in the teaching of sciences. The results of the study may encourage the government to provide instructional materials to all the public schools as a support for academic excellence.

 

Finally, the researcher hopes that the findings of this study, if published, will serve as reference materials for teachers and students as well as other researchers who will carry out further research in this and other related fields of study.   

 

1.7       SCOPE OF THE STUDY       

The study was delimited to comparing the effects of models, simulations, charts and textbook usage on achievement and retention of Senior Secondary Two (SS11) Biology students in public secondary schools in Ikot Ekpene Education zone of Akwa Ibom State. The choice of Senior Secondary Two (SSII) students was due to the fact that the concept for the study is in the Senior Secondary Two (SSII) curriculum. The concept taught to the students was Mammalian Digestive System. Digestive system is one of the concepts in Biology students find difficult to comprehend according to West African Examination Council Chief Examiners’ reports (2016). Senior Secondary Two (SS11) students are not in final examination class, so they are more favourably disposed to be involved in the study. The study was delimited to public co-educational schools and four types of instructional resources (models, computer simulations, charts and textbook).        



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Dispute can only be created when you receive a corrupt file, a wrong file or irregularities in the table of contents and content of the file you received. 

ProjectShelve.com shall either provide the appropriate file within 48hrs or send refund excluding your bank transaction charges. Term and Conditions are applied.

Buyers are expected to confirm that the material you are paying for is available on our website ProjectShelve.com and you have selected the right material, you have also gone through the preliminary pages and it interests you before payment. DO NOT MAKE BANK PAYMENT IF YOUR TOPIC IS NOT ON THE WEBSITE.

In case of payment for a material not available on ProjectShelve.com, the management of ProjectShelve.com has the right to keep your money until you send a topic that is available on our website within 48 hours.

You cannot change topic after receiving material of the topic you ordered and paid for.

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