a study on the use of ict in teaching in secondary schools ......5.7 study results from the...
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A Study on the Use of ICT in Teaching in
Secondary Schools in Kuwait
Eid Alharbi
Thesis fulfilment for the degree of Doctor of
Education (PhD)
Cardiff School of Education
Cardiff Metropolitan University
ii
Declaration
This work has not previously been accepted in substance for any degree and is not being
concurrently submitted in candidature for any degree.
Signature of author............. .........................................
Date.......20-1-2014........................................................................
STATEMENT 1 This thesis is the result of my own investigations, except where otherwise stated. Other
sources are acknowledged by citations giving explicit references. A list of references is
appended.
Signature of author....................... ...............................
Date.......20-1-2014........................................................................
STATEMENT 2 I hereby give consent for this thesis to be made available for consultation within the
university library and for photocopying or inter-library loan for the purposes of
consultation and for the title and summary to be made available to outside organisations.
Signature of author................... ...................................
Date................20-1-2014...............................................................
iii
Acknowledgements
It would not have been possible to complete this thesis without the help and support
of a number of people. Firstly, I would like to thank Prof Gary Beauchamp & Dr
Cecilia Hannigan-Davies for their continued academic and moral support. Their
suggestions clarified many points, and guided me toward the standards and
requirements for the degree of PhD.
I would like to extend that appreciation to the support and the help of the PhD staff in
the School of Education at the Cardiff Metropolitan University, whose
understanding, patience and kindness supported me through the entire process.
Second, I would like to thank my wife and my children for their great patience during
the development of this thesis, without them, I would never have been able to
complete it.
iv
Abstract
Over the past few decades, information and communications technology (ICT) has become
gradually more important to schools and universities. There are wide of research exists to explore
and study the use of ICT in the process of learning and teaching in secondary schools.
This research examines how ICT is applied in the classroom of Kuwaiti schools from the
perspective of students, teachers and decision-makers. Based on four fundamental research
questions, the aim is to analyse the level and impact of ICT on teachers‟ pedagogy, the students‟
perception of ICT use in the classroom and to seek out any fundamental differences in public and
private education, as well as across genders.
The research adopted a mixed-methods approach to data gathering, using questionnaires and semi-
structured interviews to gather data from students, teachers and policy-makers in Kuwait. The
evidence was then analysed based upon the original research questions outlined.
The results show a sporadic use of ICT in Kuwaiti secondary schools and suggest that when
employed, evidence is mixed as to whether there is indeed a positive or negative impact from ICT
use. The research does suggest there is capacity in the skills of teachers and students to employ ICT
effectively, at least on a fundamental or technical level. There remains a significant gap between
possessing these schools and applying them in the school setting. Alongside this, there is some
support and recognition of the benefits associated with ICT use, and there are some teachers who
recognise the importance of ICT in developing more constructivist methods in the classroom. The
research therefore implies both a potential failure of Government and the profession itself to
effectively implement ICT in the Kuwaiti classroom.
v
Table of Contents
Sections Title Page Number
Declaration ii
Acknowledgements iii
Abstract iv
Table of Contents v
List Of Tables: viii
List Of Figures: xi
1 Background to the study 1
1.1 Overview 1
1.2 Statement of the Research Problem 2
1.3 Significance of the Study 3
1.4 Research Objectives 3
1.5 Research Questions 4
2 Literature Review 5
2.1 Introduction 5
2.2 Interactive Teaching 5
2.2.1 Can ICT affect Interactive Learning? 8
2.3 Learning Theories and Implication for ICT 13
2.3.1 The application of ICT in a Constructivist Approach 18
2.4 Use of ICT in teaching and learning 20
2.4.1 Effectiveness of ICT on the role of teachers 20
2.5 Effective use of ICT in Teaching and Learning, by Subject 32
2.5.1 Using ICT in Arabic (Subject) 32
2.5.2 Using ICT in English (Subject) 36
2.5.3 Using ICT in Mathematics (Subject) 41
2.5.4 Using ICT in Sciences (Subject) 48
2.6 Using ICT in International Teaching 54
2.7 The Differences between gender and ICT use and Effectiveness 56
2.8 Information, ICT and Motivation 58
2.8.1 What is Motivation? 58
2.8.2 ICT and Student Motivation 59
3 Kuwait 62
3.1 The State of Kuwait – General Background 62
3.2 Kuwaiti Education System 63
3.3 Private and Public Schools 63
3.3.1 Historical Background of using ICT in teaching within Kuwait 71
4 Research Methodology 73
4.1 Introduction 73
4.2 Research Design 74
4.3 Use of Questionnaires 77
4.3.1 Rationale for Questionnaire Use 77
4.3.2 Questionnaire Design 79
4.3.3 Pilot Study 80
4.3.4 Translation 81
4.3.5 Participation in Interviews 82
vi
4.4 Interview Techniques 86
4.4.1 Rationale for Interview Use 86
4.4.2 Interview Design 87
4.4.3 Implementation of the Interviews 88
4.4.4 Interview Procedure 88
4.5 Validity and Reliability 88
4.6 Epistemological Approach 91
4.7 Ethical Issues 92
4.8 Description of the Independent Variables 93
4.9 Critical Overview 96
5 Data Analysis 97
5.1 Introduction 97
5.2 Questionnaire Analysis 97
5.2.1 Overview 97
5.3 The Teachers‟ Results 98
5.3.1 ICT Confidence amongst Teachers 98
1.1.5.5 5.3.1.1 ICT Usage Level for Teachers by Comparison with Associates and
Students
511
1.1.5 ICT Usage in Teaching Practice 101
5.3.2.1 Relationship between the use of ICT in teaching and teaching methods 511
5.3.3 The Perspective of Teachers on ICT Use 105
5.3.3.1 Advantages and disadvantages of using ICT in your teaching method 511
1.1.1.5 The effect of ICT use in teaching on teachers 511
5.4 Comparing Teachers‟ Confidence with Use 108
5.5 Analyzing Teacher Responses by Subject 109
5.6 Examining the Independent Variables 121
5.6.1 Comparison by Sector 121
5.6.2 Comparison by Gender 123
5.6.3 Comparison by Subject 124
5.7 Study results from the perspective of students or results related to students 126
5.7.1 Overview 126
5.7.2 Using ICT at Home 128
5.7.3 Viewpoints of students regarding using ICT in the teaching/learning process 131
5.7.4 Students‟ Confidence in ICT Use 134
5.7.5 Comparison levels between teachers and students in ICT Use 136
5.7.6 Analysing the Student Responses by Sector 138
5.7.7 Analysis by Sector using Combined Measures 148
5.7.8 Analysing the Student Response by Gender 151
5.7.9 Analysis by Gender using Combined Variables 163
5.8 Interview Data Analysis 165
5.8.1 Analysis by Research Question 165
5.8.2 Developing Categories from Codes 172
5.8.3 Reviewing the Key Questions from the Research 172
6 Discussion 175
6.1 Introduction 175
6.2 Use of Independent Variables 177
vii
6.3 Research Question 1 - How confident are teachers in using ICT in the teaching
and learning process?
178
6.3.1 Teachers ability to effectively use ICT 178
6.3.2 ICT Use in Practice 181
6.3.3 Perceptions of the Impact of ICT on Teaching Styles and Pedagogy 182
6.4 Research Question 2 - Does this confidence and application vary between
subjects?
186
6.5 Summary of Teacher Analysis 189
6.6 Research Question 3 - How do students use ICT in the classroom and at home? 190
6.6.1 Using ICT at School 191
6.6.2 Using ICT in the Home 191
6.6.3 Students‟ perceptions of ICT in the teaching/learning process 192
6.6.4 Students Confidence Level in ICT Use 193
6.6.5 Summary 194
6.7. Research Question 4 - Are there any differences between students‟ teaching and
learning in public schools and private schools in terms of their use of ICT in the
classroom?
196
6.8. Research Question 5 - Are there any differences between male and female
students‟ teaching and learning in terms of their use of ICT in the classroom?
200
7 Conclusions and Recommendations 202
7.1. Introduction 202
7.2. Research Question 1 - How confident are teachers in using ICT in the teaching
and learning process?
206
7.3. Research Question 2 - Does this confidence and application vary between
subjects?
204
7.4. Research Question 3 - How do students use ICT in the classroom and at home? 204
7.5. Research Question 4 - Are there any differences between students‟ teaching and
learning in public schools and private schools in terms of their use of ICT in the
classroom?
205
7.6. Research Question 5 - Are there any differences between male and female
students‟ teaching and learning in terms of their use of ICT in the classroom?
207
7.7. Recommendations 208
7.8. Limitations and Areas for Further Study 212
7.9. Closing Statements 213
References 214
Appendix 1 – The Student Questionnaire 229
Appendix 2 – The Teacher Questionnaire 237
Appendix 3 – Coded Interview Transcripts 244
Appendix 4 – Interview Coding and Frequency 258
Appendix 5 – Interview Coding Frequency by Question 260
Appendix 6 –Interview Categories from Codes 262
Appendix 7–permissions letters 561
viii
List Of Tables:
Page
number
Table 3.1: Schools Stages in Kuwait 70
Table 3.2: Secondary Schools and Students in Educational Districts – 2010/11 70
Table 3.3: Distribution of teachers in Kuwaiti schools in terms of nationality, gender and
educational stage
71
Table 4.1: Selection of Schools and Students for Questionnaires 83
Table 4.2: Overview of Schools Used in Questionnaires and ICT application 85
Table 4.3: Internal Consistency Estimates of Dimensions for instrument
Table 4.4: Description of student sample according to the following variables: Sector,
gender, section.
Table 4.5: Description of teachers‟ sample according to the following variables: Sector,
gender, specialisation, grade teaching, age, Number of years in teaching, attended any ICT
training courses
90
93
94
Table 5.1: ICT Confidence of School Teachers 98
Table 5.2: ICT Usage Level for Teachers by Comparison with Associates, and Students 101
Table 5.3: Teachers use of ICT at school and home 103
Table 5.4: Relationship between use of ICT in teaching and teaching methods 104
Table 5.5: Advantages and disadvantages of using ICT in teaching method 106
Table 5.6: The effect of using ICT in teaching on teachers 107
Table 5.7: Correlation Between ICT Confidence and Use 109
Table 5.8: Teachers‟ confidence in their ICT use 110
Table 5.9: ANOVA Test result for teachers‟ confidence in their ICT use, by subject 111
Table 5.10: Teachers‟ ICT use in schools, by subject 112
Table 5.11: Highest and lowest mean averages of ICT use, by subject 113
Table 5.12: ANOVA test result for Teachers‟ ICT use in Schools, by subject 114
Table 5.13: Teachers‟ ICT use at home, by subject 115
Table 5.14: ANOVA test result for Teachers‟ ICT Use at Home, by subject 116
Table 5.15: Teachers‟ opinions of ICT use in teaching practice, by subject 118
Table 5.16: ANOVA test results for teachers‟ opinions of ICT use in teaching practice, by
subject
119
Table 5.17: Teachers‟ perception of the impact of ICT use in the classroom, by subject 120
Table 5.18: ANOVA test results for teachers‟ perception of the impact of ICT use in the
classroom, by subject
120
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Table 5.19: Public and Private Teachers‟ Use, Confidence and Belief in ICT 121
Table 5.20: T-Test Output for Sector against Major Sections 122
Table 5.21: Mann-Whitney Output for Sector against Major Sections 122
Table 5.22: Shapiro-Wilk Normality Test for Teacher Confidence 122
Table 5.23: Male and Female Teachers‟ Use, Confidence and Belief in ICT 123
Table 5.24: T-Test Output for Gender against Major Sections 123
Table 5.25: Mann-Whitney Output for Gender against Major Sections 124
Table 5.26: Shapiro-Wilk Normality Test for Teacher Usage 124
Table 5.27: Use, Confidence and Belief in ICT by Teachers‟ subject 125
Table 5.28: ANOVA Output for Subjects 125
Table 5.29: Student Use of ICT at School 127
Table 5.30: Student Use of ICT at Home 129
Table 5.31: Using ICT at Home – Frequency 131
Table 5.32: Student Perceptions of ICT 132
Table 5.33: Students Opinions about using ICT in the teaching/learning process 134
Table 5.34: ICT Confidence Levels amongst Students 135
Table 5.35: Comparison between teachers and students in ICT confidence Level 137
Table 5.36: Students‟ ICT use in School, by sector 138
Table 5.37: T-test for Students‟ ICT use in School, by sector 140
Table 5.38: Students‟ ICT use at home, by sector 141
Table 5.39: T-test for Students‟ ICT use at Home, by sector 142
Table 5.40: Students‟ Perception of Using ICT in Teaching and Learning, by sector 143
Table 5.41: T-test for Students‟ Perception of Using ICT in Teaching and Learning, by
sector
144
Table 5.42: Students‟ confidence in Using ICT in Teaching and Learning, by sector 146
Table 5.43: T-test for Students‟ Confidence in Using ICT in Teaching and Learning, by
sector
147
Table 5.44: Combined Measures Analysis by Sector 148
Table 5.45: T-Test results for Combined Variables, by Sector 149
Table 5.46: Mann-Whitney Output for Student Combined Variables by Sector 149
Table 5.47: Shapiro-Wilk Test Results for Student ICT Use Normality 150
Table 5.48: Students‟ ICT use in School, by Gender 152
Table 5.49: T-test for Students‟ ICT use in School, by Gender 154
x
Table 5.50: Students‟ ICT use at home, by Gender 155
Table 5.51: T-test for Students‟ ICT use at Home, by Gender 156
Table 5.52: Students‟ Perception of Using ICT in Teaching and Learning, by Gender 158
Table 5.53: T-test for Students‟ Perception of Using ICT in Teaching and Learning, by
Gender
159
Table 5.54: Students‟ confidence in Using ICT in Teaching and Learning, by Gender 161
Table 5.55: T-test for Students‟ Confidence in Using ICT in Teaching and Learning, by
Gender
162
Table 5.56: Combined Measures for Students by Gender 163
Table 5.57: T-test Results for Combined Variable by Gender 164
Table 5.58: Mann-Whitney Results for Combined Variables by Gender 164
Table 5.59: Shaprio-Wilk Results for Student Confidence 164
Table 6.1: Teachers Confidence in ICT 179
xi
List of Figures Page number
Figure 3.1: Geographical location of Kuwait 62
Figure 3.2: Structure of the Ministry of Education 69
Figure 4.1: Description of student sample according to the
following variables: Sector, gender, section.
94
Figure 5.1: Description of student sample according to the
following variables: Sector, gender, section.
104
Figure 5.2: Using ICT at Home - Frequency 131
Figure 5.3: Students Opinions about using ICT in the
teaching/learning process
134
Figure 5.4: Comparison between teachers and students in ICT
Usage Level
137
Figure 5.5: Students‟ ICT use in School, by sector 139
Figure 5.6: Students‟ ICT use at Home, by sector 142
Figure 5.7: Students‟ Perception of Using ICT in Teaching and
Learning, by sector
145
Figure 5.8: Students‟ ICT use in School, by Gender 153
Figure 5.9: Students‟ ICT use at Home, by gender 157
Figure 5.10: Students‟ Perception of Using ICT in Teaching and
Learning, by Gender
160
Figure 5.11: Students‟ Confidence in Using ICT in Teaching and
Learning, by Gender
160
Figure 5.12: The Development of Categories from Codes 172
Figure 6.1: Arithmetic Mean against Standard Deviation for
Confidence in ICT of Teachers
180
Figure 6.2: ICT use in the Home versus School 191
1
1 Background to the study
1.1 Overview
In 2005, the Ministry of Education in Kuwait announced a strategic plan for education for
the subsequent twenty years, ending in 2025. One of the significant themes of this strategy
was the divide between developing countries and the advanced world. The strategy also
referred to the necessity of bridging the „gap‟ between the Kuwaiti educational system and
the use of Information and Communication Technology (ICT) in everyday life. However,
despite these broad strategic aims, the strategy did not specify how these may be delivered
operationally.
Prior to the development of this strategy, in the early 1980s the Ministry of Education in
Kuwait developed its first ICT initiatives following a study investigating the feasibility of
using computers in secondary schools – one of their most fundamental aims.
The implementation of computer use in secondary schools began in 1987 with the
commencement of an introductory course in computing. However, progress in embedding
ICT into wider school use was slow, and until 1996 teaching computer use was made on an
ad hoc basis, dependent upon local organisational ambition and plans. Despite intentions to
initiate a national project to support the use of computers in schools, there was no
overarching strategy in place to support it.
Since the mid-nineties there has been an increasing trend towards more openness in ICT
use, notably the use of computers or other aspects of ICT in teaching across the curriculum.
This was enhanced by the first national project to teach ICT in schools which started in
four girls‟ secondary schools in 1996. This project formed the first step in implementing
the government educational strategy in bridging the gap between the old education system,
and the emergent needs of teaching ICT in schools. The total estimated cost of the project
was $24 million, available until 2003.
2
Research attempts to evaluate this national project in Kuwait have been minimal; only two
studies are available, namely El-Fraje et al. (1995) and the Ministry of Education (2001).
The El-Fraje et al. study examined the general achievements of this project with no
specific reference to the difficulties that teachers, students or administrators faced in
applying the specifications embedded in the national project. Their study did not
investigate the rationale and purposes underlying the project and the outcomes associated
with its implementation were not investigated. The second study was conducted in 2001 by
the body who initiated the project itself (the Ministry of Education in Kuwait). This study
examined the role of ICT in developing teaching methods for the Arabic language.
Although the term ICT was continually referenced throughout the project, it was always
misused (i.e. ICT has traditionally meant simply the „use of computers‟ in Kuwaiti
educational culture). Overall, these studies have failed to make a significant contribution in
assessing a national project costing some $24 million; however, they were the only studies
that evaluated this project. This paucity of investigative detail, in fact, stimulates the
researcher to investigate different aspects of the national project and the application of this
project in secondary schools. In part, the motivation behind this research is borne from this
- to undertake a more specific examination of the purposes, operations, difficulties, and
outcomes of the application of ICT in secondary schools.
1.2 Statement of the Research Problem
In a Kuwaiti context there has been a rapid change in the role of the teacher in recent years.
There are many new changes and challenges that teachers face, and are required to adapt
to. Included in this are a more modern and westernised approach from schools; new
methods of teaching and learning, an increase in student numbers, and (most importantly)
an explosion in the development of teaching with ICT. All of this means teachers need to
update their knowledge and skills to develop the educational process in the classroom.
With the advent of a new philosophy towards ICT and its role in education, a wide body of
research has developed investigating the role of ICT and its effect in developing an
interactive education environment. Many of these studies have provided evidence of the
3
significant contribution that ICT makes to improving methods of teaching and positively
impacting the learner (Kennewell and Beauchamp, 2007).
However, many of these studies have been limited to investigating the impact of ICT on
learners. There is substantially less research which focuses on the role which ICT plays in
creating and promoting a more interactive educational environment, as part of teaching and
learning. The presence of ICT in the interactive educational environment can help to
develop thinking skills and make classrooms an environment for educational growth. ICT
also helps students to develop new thinking skills which may transfer to different situations
which may require analysis and comprehension skills, and consequently critical skill
development (Al Hudhaifi and Al Dughaim, 2005). This again was a motivation for the
study; to investigate the role of ICT in promoting an interactive learning environment.
1.3 Significance of the Study
It is considered that the research is potentially of considerable importance, for a number of
reasons:
1. It will help to support policy makers in the Ministry of Education in Kuwait and
also teachers in developing ICT use within schools.
2. It will provide an opportunity to compare the views of teachers, students, and
policy-makers on ICT use in Kuwaiti schools.
3. It will support educational administrators and policy makers in choosing the
appropriate methods of managing changes associated with ICT use in the
educational system in Kuwait.
4. It will be considered to be the first study in Kuwait which takes into consideration
the different aspects of the application of ICT in the educational system.
1.4 Research Objectives
1. To investigate the difference that ICT makes to teaching and learning.
2. To explore how ICT affects teachers‟ confidence in the classroom.
4
3. To examine the teaching and ICT contributions to improving attainment – notably
students‟ perception of their attainment.
4. To investigate the advantages and disadvantages of using ICT in the classroom for
teachers and students in selected subjects in the curriculum.
1.5 Research Questions
To address the research‟s objectives, the study seeks to answer the following questions;
1. How confident are teachers in using ICT in the teaching and learning process?
2. Does this confidence and application vary between subjects?
3. How do students use ICT in the classroom and at home?
4. Are there any differences between students’ teaching and learning in public schools
and private schools in terms of their use of ICT in the classroom?
5. Are there any differences between male and female students’ teaching and learning
in terms of their use of ICT in the classroom?
5
2 Literature Review
2.1 Introduction
This thesis will assess and evaluate the level and nature of ICT use in secondary school
classrooms in the State of Kuwait. This chapter will review the literature related to the use
and impact of ICT on learning in Kuwaiti secondary schools. Due to the central role of
learning in this thesis, the chapter will begin with a discussion of the most prominent
theories of learning from the last two centuries. It will then consider the new models of
interactive teaching being used in many schools in order to integrate ICT into the
curriculum and then finally relate these theories and new ideas to the use of ICT in Kuwaiti
secondary schools.
Even though some schools are wary of introducing too much ICT teaching into their
practice, this study aims to prove that embedding ICT into the teaching and learning
process is extremely valuable. While there has been some innovation in pedagogical
strategy, including notable successes through the use of ICT, most secondary schools still
have a long way to go because an old teacher-centred paradigm still exists in schools the
world over, as opposed to more modern approaches which focus on student-centred
principles.
In the literature review, the thesis considers the areas most pertinent to the five research
questions already specified, and considers the role of ICT in interactive teaching, the link
between various learning theories and ICT and thereafter the use of ICT by subjects,
internationally and studies which have examined the role of gender in determining ICT
use.
2.2 Interactive Teaching
Different definitions have been introduced regarding „interactivity‟ as a concept in the
study of teaching and learning. In this regard, significant importance is placed on theories
of learning, their discussion and the studies based on the language of discourse in the
classroom between the teacher and the students (Burns & Myhill, 2004).
6
Part of the rationale for this study is to highlight interactive teaching as a means of
enhancing students‟ learning. The learning theories discussed by Vygotsky (1972) and
Bruner (1986) in relation to the importance of the development of thinking and learning,
use the term „interaction‟ to refer to the different exchanges thought to be capable of
broadening thinking and enhancing learning. Learners, according to their suggestions,
develop understanding inside interactive social situations backed up with knowledge
through collaboration with others, who receive knowledge of cultural value and seek new
learning (Burns & Myhill, 2004).
In a study that addressed the effects of providing „procedural‟ opportunities for learning,
Cooper & McIntyre (1994) discussed a model involving a continuum, starting from a
discourse and extending through interactivity and interactive reaction, to a self-centred
learning. According to them "interactive" teaching exists where teachers integrate with
their plans as well as with knowing their students, provided that "teachers believe that the
correct use of students‟ inputs will take place only within a framework of specific criteria
based on the plans that precede the lesson they intend to provide" (Cooper & McIntyre,
1994: 639).
Interactive learning is achieved through maintaining a balance between direction,
command, presentation, explanation, illustration, questions, discussion, exploration,
confirmation, profound thinking, evaluation and summarising (DFES, 2002: 39-40).
Accordingly, we have to view interactive learning in its entirety, integrating as it does with
teaching components inside the classroom.
There is large-scale agreement that the quality and level of interaction between the teacher
and the learners is an important component of effective teaching (Kennewell, 2005).
Brown et al. (1998) point out that the pattern of classroom organisation should not be
considered to be the main feature of good learning, but that it is better measured by the
quality of interaction between the teacher and the students. Hargreaves et al. (2010)
suggest that effective interactive teaching, which is distinguished by constant mutual
interaction between the teacher and the learner, involves the exchange of thoughts and not
7
traditional methods of „dictation, response and feedback‟ which results from a teacher‟s
questions.
Muijs and Reynolds (2010) distinguish interactive learning in terms of the nature and
efficacy of the interaction between the teacher and the students. They suggest that
interaction enables the teacher to confirm that the learner understands the principles that
have been taught. It helps the students to practise and master target skills and clearly
highlights the way they think. It also helps the teacher to offer targeted learning support.
They have drawn on US studies from the 1980s, which highlight the following as features
of interactive learning:
The use of questions to revise what has been learnt earlier at the start of the lesson
and summing up what has been learnt at the end of the lesson.
Creating a climate where learners are encouraged to answer questions.
The inclusion of strategic and high-level questions, open-ended questions and
process-related questions.
Assessing learners‟ answers and offering clear feedback, especially when the
learner seems hesitant.
Making learners interested by rephrasing or dividing questions in case there are
incorrect or no answers.
Allowing the learner sufficient time to answer.
Having incorrect questions answered by other learners rather than the teacher.
(Muijs and Reynolds, 2010)
The UK National Literacy Strategy (NLS), in parallel with number strategy in the UK
(DFEE, 1998a, 1999), called for a greater emphasis on interactive learning, having been
considered one of the factors that lead to success - in conjunction with greater discussion,
trust, ambition and learning tempo. It has also pointed out that learning becomes
interactive when students‟ participations are encouraged, expected and enlarged (DFEE,
8
1998a: 8). Hargreaves et al. (2010, p. 224) defined nine different features of interactive
learning based on teachers‟ own interpretations of how to promote interactive learning:
Students‟ practice.
Students‟ practical and effective participation.
Students‟ expanded participation.
Cooperative activity.
The transfer of knowledge and „deep‟ work patterns.
Assessing and enlarging knowledge.
Meaning exchange and formation.
Paying attention to thinking and learning skills.
Paying attention to students‟ social and emotional needs / skills.
Burns and Myhill (2004) have suggested some important features that interactive lessons
offer; Mutual opportunities for discussion, which help children to develop independent
voices during discussion; appropriate direction and „patternisation‟ when the teacher
organises language and skills to think collectively; Environments that stimulate students‟
participation, and; raising students‟ level of independence.
Many studies in interactive learning emphasise the shift from high levels of teachers‟
control to greater self-centred learning on the students‟ part. It may be useful for future
researchers to imagine interaction in teaching regarding interaction and scaffolding nature
through dialogue. Kennewell, Tanner, and Beauchamp (2007) for example, expect
interactive teaching to include several levels of interaction in order to cope with teaching
objectives.
2.2.1 Can ICT affect Interactive Learning?
Using ICT effectively can lead to a more positive educational ethos in the classroom and in
effect a more communicative classroom. Effective use of ICT by the teacher can offer
greater interactivity at both a deep and surface level. We will explore the general use of
ICT, but also its impact on interactivity within the classroom.
9
Cox et al. (2003) undertook a review of the research and then concluded that ICT had
indeed had a positive effect on attainment in National Curriculum subject areas. They
qualified this assertion by stating that it was not just the everyday use of ICT as a tool, but
the skilful use of ICT by the teacher, when linked to careful pedagogical strategies
enhancing classroom communication. In order to get the best use of ICT teachers have to
be aware of ICT‟s range and features as a resource and should be deeply versed in ICT
techniques. This conclusion was confirmed by Somekh and Davies (1999) and Sutherland
(2005). They assert that the skilful use of ICT by trained practitioners is absolutely key to
higher attainment. ICT offers a range of key features including speed, automation,
capacity, range, provisionality and interactivity (Beauchamp (2012: 3).
Speed
Although ICT has offers massive capacity for improving the speed of teaching, it can be
detrimental to younger (or less able) children if used too quickly. Learners‟ needs must be
considered at all stages of planning and the pace and timing of the lesson adjusted to
learner responses through ICT use when necessary and productive.
Automation
The development of materials, in terms of scale, creativity and choice was far more
difficult before the advent of ICT - as was planning, recording and assessment of pupil
progress. ICT has indeed become an integral educational aid for teachers and school staff.
Capacity
Linked to automation is storage capacity. ICT has offers high levels of increased storage
capacity. Even small devices have huge memories which store great amounts of data.
Some data networks are not even „wired connections‟ and as cloud storage can be accessed
from anywhere, access to many sites is made easy and swift. ICT makes for an especially
bright future when linked to innovative and creative pedagogies.
10
Range
There is now a wide variety of media easily accessed and available so that lessons can be
ICT based. However, ICT should partner and complement traditional modes of teaching
such as „Big Books‟ and other materials, not just replace them.
Provisionality
Provisionality appears to have two components; temporariness and inventiveness. Lessons
can be changed at will, at teachable moments, and content easily effaced as with
Interactive Whiteboard (IWB) use. On traditional white or black boards writing was
difficult to erase: this is not the case with IWBs. Things can be quickly relocated, deleted,
or rearranged so speedily both remotely and in physical locations. Pedagogic materials can
be created or destroyed at immense speed. The process of learning is seen to be more
important than the product, but both are integrated during skilful use of ICT in the
classroom.
It seems there is a common assumption that ICT, as a tool, provides learners with
interactive experiences. The introductory programme for training teachers to use ICT, in
use in the UK, explains a number of the merits provided by ICT tools and sources, which
teachers have to understand they can benefit from - namely speed, spontaneity,
understanding, specialisation and interactivity (DfEE, 1998a). These characteristics give
ICT its distinctive features as a learning tool compared to other tools and sources
(Kennewell et al., 2008). It is possible that the embedding of ICT into teacher training
programmes explains why the use of the ICT is perceptively more interactive to teachers.
ICT provides a number of advantages, both essential and combined, which contribute to
broaden and designate the procedures used inside the classroom (Kennewell, 2007). The
merits of speed and repetition for ICT are utilised when learners are able to see quick
sequences for a specific phenomenon, which could help their understanding of the concept.
This has actually been observed, for example, while students learn the method of building
a reflected picture in mathematics. Here, they can circle the corners of the shape and then
notice its effect on the reflected picture, while the teacher focuses their attention on the
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shape sides that have remained unchanged. In this instance, the use of ICT helps them to
build reflected pictures manually (Beauchamp & Kennewell, 2008).
According to Smith et al. (2005), teachers have provided the following reasons for their
use of the interactive whiteboard:
Flexibility and multi-functionality.
Presentation of multimedia and the use of the different senses.
Saving the task and printing it out.
Interactivity.
Lesson preparation and saving.
Teaching ICT.
Interactivity and interchange.
Pedagogic beliefs significantly impact levels of interaction and communication.
Traditional, transmission based models of teaching are inherently less reliant upon
interactivity than constructivist modes, but interactivity must be promoted. Although there
is no complete agreement on a full definition, interactivity has been defined as the ability
of ICT to „respond contingently to a pre-defined set of responses‟ (Beauchamp, 2012, p7).
Teachers get bored quickly with providing negative or positive feedback across all lessons.
Computers never tire in their feedback or in summative assessment, yet they cannot
provide the detailed and individual levels of feedback that teachers can.
Interactivity is depicted by Hargreaves et al. (2010, p 224) as being of two types; the first
is a „gimmicky‟ or „surface form‟. This type can entertain but it is not necessarily
educational in function. It contrasts with „deep interactivity‟ which engages students‟
comprehension and promotes a deeper level of response. The „surface‟ type relates to
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factual recall type learning. The „deeper‟ type promotes greater thinking skills when
coupled with dialogical teaching.
Smith et al. (2005) also argue two forms of interactivity, a technical form and a
pedagogical one. They make the point that research shows that the pedagogic mode is the
more important of the two. Pedagogics are shown to be more important than usefulness in
ICT use.
Teaching has been to this point delineated as a socio-cultural activity, contextualised in a
setting and orchestrated and organised by the teacher. It could be argued that teachers‟
pedagogical beliefs around interactivity can create strategies to facilitate higher attainment.
Interactivity as a concept may prove elusive to define, but Burns and Myhill (2004)
provide a list of possible criteria being: reciprocal opportunities, guidance and modelling
by teachers, provision of a setting or learning environment and lastly facilitation of
autonomous learning. These authors provide a more open context for ICT use and partner
it with skills of teacher guidance and communication.
In interactive teaching the role of the teacher is to support students in every aspect of their
learning. However, their effort, interaction and participation play an important role in the
acquisition and comprehension of knowledge. Consequently, they become ready to
implement the method of learning constantly while they are at work. This is because in
their practical life they will encounter problems other than the ones they encountered in
their academic life, and so they will be ready to learn without anybody‟s help. In effect,
this is very important in today‟s job market, for the worker or employee to be educated,
and if it is not so, he will not be useful for the employer. If he does not go beyond what he
has achieved in his academic study, in the medium term he will lag behind society and
scientific advancements. However, Unal and Hakki Ozturk (2012) oulined the following
barriers that may affect the ICT integration within classrooms: Lack of ICT Equipment in
Classrooms, Lack of the ICT-Based Teaching Resources, Teachers‟ Beliefs and Practices;
13
Effects of Traditional Approaches, Problems Related to Teachers‟ In-service Training, and
Problems Related to Lack of Time.
2.3 Learning Theories and Implication for ICT
In the 20th
and 21st centuries, many scholars attempted to define teaching and learning.
These definitions became theories of teaching and learning, created to try and clarify the
meaning of both. Learning theories provide us with conceptual frameworks of
interpretation for the act of learning, and show us where to look for solutions to practical
problems. Teaching methods are in the main based on theories of learning. The most
important learning theories are Behaviourism and Constructivism. These two approaches
are based on two main schools of psychology that have influenced learning theory. They
have different perspectives on learning, different perspectives on teaching styles, and
different approaches to pedagogy and evaluation.
Constructivist learning theory has been used to study the impact of ICT on teaching and
learning. This learning theory contributes to understanding both the construction of and
relationship between curricula and events. It also provides direction for research and
implementation. Because of the influence of the constructivist learning movement, the
theory of constructive learning emphasises the teachers‟ central role in academic curricula
and suggests improvement according to the teachers‟ needs and interests (Gredler, 2000;
Woolfolk, 2006). This theory supports the individual‟s growth and enables the students to
explore their learning potential.
Despite the theorists‟ different definitions of learning, a majority are agreed that learning
happens when experience leads to a constant change in the individual‟s knowledge or
manner (Weiten, 2002). What is meant by „experience‟ in this definition is „the interaction
of the person with his or her environment‟ (Woolfolk, 2006: 196).
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Constructivist Principles
Learning theories based on mannerist and knowledge theories dominated the 20th century.
Their principles have contributed to the enhancement of organised teaching practice
through which the teacher transmits information and knowledge to students through
methods similar to lecturing. Mannerist and knowledge directions placed little emphasis on
students‟ input and their contributions in the teaching and learning process. Accordingly,
students could be deemed by these theories to be passive participants in the learning
process (Woolfolk, 2006). In contrast to knowledge and mannerist theories which
emphasised the important role played by the teacher and the organised transfer of content,
the constructionist theory emphasised the students‟ central role in the learning process and
acknowledged the students‟ ability to construct meaning through their learning (Kanuka &
Anderson, 1999).
Despite the policy of implementing constructionist practices in the second half of the past
century, the theories that formed student-centered learning were simplified.
Constructionism has been influenced as a learning theory by the writings and thoughts of
Biajeh and Vijeotski (Woolfolk, 2006). The organisation of constructionist learning
environments is done such that students are asked to construct meaning from the context
and actively participate in the process of problem solving. Constructionism supports
interaction between students and their teachers, and this contributes to the creation of an
environment in which all students and teachers participate in the learning process.
Learning construction happens through the constructionist environment at different times.
Accordingly, constructionist theory implies that there are no specific goals and frameworks
to be followed (Gance, 2002). Generally, the following principles are drawn from the
constructionist approach (Brooks & Brooks, 1999; Kanuka & Anderson, 1999):
Learning is an active process through which the learner constructs meaning.
There must be previous experience and knowledge for learning new things.
Individuals learn for the sake of learning - learning constitutes the meaning and its
systems.
Motivation is regarded essential for learning.
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Learning practice is considered important for active learning. Practical training
activities have to be emphasised.
Learning represents a social activity, as our interaction with others is extremely
important.
Language is an important component of the learning process.
Language is regarded as context-bound. Our learning is tied to what we know and
believe in. It is also tied to our previous judgments and fears.
Learning is not instant. It occurs over a period of time.
Constructivism and Constructionism
Partly in reaction to didactic approaches such as behaviorism and programmed instruction,
constructivists have argude that learning is an active, contextualized process of
constructing knowledge rather than acquiring it. This theoretical stance actively opposes
traditionalist, didactic, transmissions of knowledge. Seymour Papert and Idit Harel in their
book Situating Constructionism (1991) use the terms constructivism and contrsuction
almost interchangeably, but use „Constructionism‟ as it applies to Learning Theory.
„Constructionism--the N word as opposed to the V word--shares constructivism's
connotation of learning as "building knowledge structures" irrespective of the
circumstances of the learning. It then adds the idea that this happens especially felicitously
in a context where the learner is consciously engaged in constructing a public entity,
whether it's a sand castle on the beach or a theory of the universe.‟ (Papert and Harel,
1991:1)
Theorists like Edith Ackerman (2001) also see a smooth transition between constructivism
and constructionism, between Piaget (1969) and Papert, seeing constructionism largely as a
more situated learning theory, especially valuable in cybernetics and more socially
contexted than Piaget‟s earlier work. She states:
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„Papert‟s constructionism, in other words, is both more situated more pragmatic than
Piaget‟s constructivism [or Vygotsky‟s socioconstructivism] Constructivism asserts that
learning is an active, constructive process. The learner is an information constructor. The
learner actively constructs or creates his/her own subjective representations of objective
reality. New information is linked to prior knowledge, existing schemata always activated
(Ackerman, 2001:5).
Constructive Classrooms
Constructivist theory emphasises the importance of experience and learning based on
experiments. Students play a pivotal role in the learning process. The teacher‟s role appears
in directing and supporting students to construct meaning and understand situations.
Practitioners and scientists have claimed that constructionism cannot be implemented in a
traditional knowledge environment. They suppose that constructionism goes beyond
formal learning which relates to students‟ previous experiences. Howe and Berv (2000)
acknowledged the „pointlessness‟ of avoiding direct teaching, especially when teaching
children, with the conclusion that it is ineffective to depend solely on constructionist
teaching patterns.
Constructionism differs from other educational practices in that most other types of
learning emphasise the importance of acquisition of knowledge and information. The
essence of constructionism appears in the individual‟s personal experience of learning and
reflection (Jonassen, Peck & Wilson, 1999; Kafai and Resnick, 1996). During the learning
process, students‟ activities are considered important and basic for constructing knowledge.
Meaningful learning occurs when there is collaboration among learners, teachers, and
specialists in this domain. Activities are not organised officially inside constructionist
classrooms through timetables or plans that students are required to follow. Students
actively help in planning and organising the activities within the classroom. This
contributes to stimulating and encouraging them to think. The methods of teaching and
learning are characterised by flexibility and comprehending students‟ viewpoints and
thoughts (Gould, 1996; Peck & Wilson, 1999).
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Classrooms and constructionist programmers exhibit the following characteristics (Gould,
1996; Peck & Wilson, 1999): learning focuses on thoughts instead of facts; the learning
process implies interaction between students and teachers; focus on the construction of
knowledge instead of repetition; encouraging and supporting dialogue and discourse within
a complicated world which involves various representations of knowledge; students‟
interests define learning; and learning experiences emphasise the prominence of realistic
activities.
Criticisms of Constructionist Theory
Despite its progressive ideas about the nature of learning, constructionism evokes a
number of criticisms. Fears surrounding its principles and applications are centered on the
following (Roblyer & Edwards, 2000: 68):
Permitting learning skill – Despite constructionist‟s condemnation of formal tests and
objective assessments, schools need sometimes to authenticate the basic skills which the
students have learnt. Previous knowledge – a lot of students lack the previous skills which
enable them to deal with the complicated problems and solving them according to what
constructionist strategies require. Selecting the most effective teaching – it is difficult for
students to choose for themselves the methods through which they will learn to solve
problems. Specifying suitable topics for constructionist methods – sometimes tension
occurs when choosing appropriate topics for a particular event and when covering one
topic deeply is preferred to talking in elaboration on many topics. Skill transfer to practical
situations – fears also arise over the ease of transferring problem solving skills that were
learnt in practical situations inside the school to problems which students have to solve in
real life.
As is the case with any change, constructionist directions in learning pose risks for
students, parents, teachers and administrators (Jonassen, Peck & Wilson, 1999). Some may
suppose that constructionism burdens students and exempts teachers from the
responsibility of their teaching capabilities. Nevertheless, contrary to this conception,
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teachers in the constructivist learning environment do not give up their responsibility, but
play different roles as facilitators for students‟ learning (Brooks & Brooks, 1999).
2.3.1 The application of ICT in a Constructivist Approach
Constructivism argues that learning is interactive and argues for the autonomy and active
participation of the student. The learner is an information constructor and actively builds
his/her own subjective representations of reality. New information is related to previous
knowledge in terms of schema development. Followers of constructivism include such
names as Vygotsky, Piaget, Dewey, Vico, Rorty, and Bruner (Learning Theories
Knowledgebase, 2009).
Constructivism as a term covers a huge theoretical area. Constructivist learning theorists
range from the individual cognitive and personal constructivism of Piaget, to the social
constructivism of Vygotsky. There are many other types of constructivism but there are
certain ideas that all constructivists have in common. Taber (2006) describes them as
being:
1. The active construction of knowledge by the learner - knowledge is not passively
received from the outside. Here the theory is vastly different from behaviourism,
which defines learning as an externally modified behaviour. Learning according to
constructivists is therefore something the learner does, not something that the
learner is compelled to do.
2. Learners have prior knowledge so they come to the learning situation with ideas
about many things. These ideas are called schemas and teachers have to take them
into consideration and make teaching relevant to these conceptual structures.
3. Learners haves their own individual ideas about reality and generate their own
meaning structures to cope with everyday living.
4. Their ideas often contradict or clash with accepted scientific ideas or with school
curricula and are culturally or socially conditioned.
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5. Knowledge is described by these theorists as conceptual structures in the brain and
it is possible to describe and to model them.
6. Instructional Design and teaching has to take the learner's prior knowledge into
account if the educators want to achieve their educational aims and objectives.
7. Knowledge is both personal and individual and at the same time has a social
dimension. Learners construct their conceptual schemas by interacting with the
social world, in social settings and within cultural and linguistic contexts.
ICT and Constructionist Theory
The use of ICT enables opportunities for learning environments and practices that require
interaction among individuals, co-operation with chances to experiencing learning, and the
principles which constructionism supports. Many educational establishments, especially at
a post-secondary school level, work on supporting integrating technology into teaching and
learning. Kanuka and Anderson (1999) provide an example of the use of the internet for
learning, as learners use the internet and explore it in different ways and explore it in
different directions. Their research used small group discussions and their presentations
after the research produced various interpretations of the subject matter.
According to Gance (2002), it is not always true to suppose that because technology
facilitates student focused learning, constructionist strategies centered on learners are used
to play a central role in their learning when ICT is utilised. At most times the use of
software and the internet do not agree with the constructionist philosophy. For example, it
could be argued that “a course about the internet individually directed towards learners
does not emphasise cooperation, interaction or the software which is meant for training and
which in practice can implement the constructionist pattern” Gance (2002:14).
Additionally, Gance (2002) points out the flaws associated with some aspects of using ICT,
notably in areas such as e-learning or subject-specific software. These methods are
associated with short-answer or multiple choice testing. Constructionism invites students to
show their understanding in more profound ways, to explain or confirm their knowledge
through assembling the information extracted previously in the manner of a new
conclusion or solution design. Such short answers do not allow this. The present short tests
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based on technology, despite being a great improvement in programming technology, are
not considered an improvement in the teaching process.
Technology may represent an important tool for facilitating and enhancing the
implementation of the constructionist pattern; however, it is not the only method to be used
as an example for constructionism. The use of only ICT to create a teaching environment
that draws on constructionist principles will not give the required effect. Indeed, it may
have a reverse effect through weakening constructionist practices (Gance, 2002).
2.4 Use of ICT in teaching and learning
2.4.1 Effectiveness of ICT on the role of teachers
Apparently, teachers' acceptance for new technologies seems to be controversial. Whilst
some have effectively integrated ICT tools into the classroom, others have been cautious in
their acceptance, and some have simply rejected these technologies. Of course, the role of
the teacher in terms of using ICT must change so as to enable them cope with the recent
developments.
Literature reviews in this field are important not only to teachers but also to policy makers
who undertake supporting teachers in implementing ICT inside the classrooms. In this
respect, Beauchamp (2008) found that teachers need to draw upon large volumes of
suitable resources that they can draw on for specific targets and adjust to meet the
requirements of the students. However, students need to have a level of ICT skills in order
to deal with technology, and teachers should help the students with important tasks rather
than waiting for the students to „push computer buttons in response to easy questions from
the teachers‟. Accordingly, this means that the teacher has to be pro-active and confident
with the technology themselves.
In order to clarify the teacher's role in implementing ICT in the classroom, some
researchers considered the teacher's competencies related to ICT, for example, Nico,
Ruttena and Wouter (2012) demonstrated that the use of computer simulations while
21
teaching in the classroom will not be successful unless teachers have the necessary skills
and information to implement them effectively. In addition, they reported that if teachers
don‟t have the skills, the potential learning from computer simulations will remain out of
reach. As an alternative, they may be used as demonstration experiments or be totally
controlled by the teacher. In other words, the role of the teacher should focus on founding a
pedagogical framework necessary for implementing computer simulations during teaching
science.
Some researchers investigated the difficulties that teachers may encounter while
implementing ICT. They revealed that the difficulties in the use of ICT are related to the
weakness of a teacher‟s knowledge about what technologies are available and how they
can be used in the educational process in the classroom. In addition, teachers should know
how to use ICT in relevant ways to help them in the delivery of the curriculum (Morrisa,
2011).
As solution for this problem, it is necessary that teachers need to feel confident in their
skills to assist student learning with technology, to incorporate technology into their
classrooms. Therefore this needs to become a more qualified development to increase a
teacher‟s skill (Ward and Parr, 2010).
Other research has focused on the advantages that teachers gain from implementing ICT.
For example, Hennessy et al., (2007) argues that teachers will benefit from the available
technology in supporting students to build links between scientific theory and empirical
evidence.
By adopting differnt approach, Greene (2008) found that there is lack of curriculum-
specific ICT resources. He asserts that teachers and students have good general ICT skills,
although they do not get the same advantage from using online resources. Moreover,
Greene found that teachers need to have the appropriate training on how to use ICT in
teaching and learning. Nevertheless, teachers need to make the shift from traditional to the
interactive pedagogies in a non-ICT context before being able to be familiar with the
22
benefits offered by ICT (Tanner et al., 2005). Interestingly, such research would recognise
the positive effects and identify any negative influences. In this way we could determine
how best to promote the teacher's role so that outcomes are improved.
With respect to ICT environment, Chen and Wu (2012) note that the teachers should
provide opportune help which should focus on how the students can learn and explain to
them that making mistakes in the lessons is part of the learning process. Furthermore, the
ICT environment should focus upon how erudite the material is in relation to reality so that
the students learn how to improve their skills and achieve the knowledge. Similarly,
Mukama & Andersson (2008) point out that learning in ICT environments is similar to a
journey and teachers newly entered into the profession often provide new visions.
Likewise, a recent study by Su (2011) suggested that ICT-integrated environmental
learning can support students to achieve a greater understanding of a chemistry lesson and
improves their attitude and approach to chemistry learning. However, these studies
emphasise the importance of providing effective ICT environment for students by teachers.
Another major viewpoint perceives that most orchestration of the learning is led by the
teacher or by software, and that students should have a more important role in
orchestration of resources (Beauchamp and Kennewell, 2010). Furthermore, it is very
significant to teachers to teach the students how to use ICT with relevant tasks while the
students are away from the ICT resource, and in a lot of different settings, for example
when the students examine the results of learning actions with another student in the
classroom, or perhaps in their leisure time (Cox and Marshall, 2007). Obviously, such
perspectives call for engaging students in their own learning while implementing ICT.
The effectiveness of ICT on the roles of teachers may be projected clearly through the
study of Hennessy et al. (2007), who carried out investigations into how experienced
classroom practitioners are beginning to harness the functionality of ICT to support
learning in science. Wherein, the methods they utilised focused upon group interviews with
four secondary science sections, with lesson observations and interviews with two teachers
23
and their students. Ultimately, they noted that the use of ICT supported shared cognition,
articulation, collective evaluation and reframing of students‟ ideas, and the structuring of
new facts for students.
In the research article by Kennewell (2005), he found in his study of schools in Wales that
teachers have evolved considerably and successfully in both course content and pedagogy
through both individual and cooperative integration of ICT into their teaching methods. His
findings support the idea that the teacher is the leader of the learning process in the
classroom.
More studies continued on addressing the effect of teacher‟s attitudes towards ICT on
students' learning. For example, Sangràa and Mercedes (2010) investigated four different
schools and they noted that there is a favourable opinion from a large group of teachers
regarding the use of ICT in education. Furthermore, they suggest that it is very useful for
students and has helped in the development of learning processes such as attention-
visualisation and response mechanism-application learning and also the understanding and
transmission of information to facilitate knowledge. However, they have also found some
negatives such as interaction skills of expression and communication skills that suggest
that not all teachers are wholly embracing ICT. As conclusion, the teacher‟s attitude is vital
in the educational process and the lack of interest shown by some teachers has an adverse
effect upon the educational process in the classroom.
By considering the features related to teacher's skills in ICT, Figg and Jaipal-Jamani (2011)
found that ICT pedagogical skills are important for teaching with ICT, across all topic
areas. Particular features of teacher actions linked to the planning of ICT enhanced lessons
across topics were recognised. Hence, features of good planning included: (a) Content-
centric goals for lessons, (b) Choice of technology-enhanced activity, (c) Differentiation
strategies, and (d) Sequencing of activities. While implementation features included: (a)
The fact that teachers need to become confident in using ICT in their daily teaching, (b)
Knowledge of specific classroom management techniques for teaching with technology,
and (c) Modelling strategies.
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In other words, all these features are unique in how they are expressed by the teacher‟s
actions in the classroom during ICT supported lessons. For example, all teachers should
include margins for varied student learning when they propose their lessons plans.
Teachers also need to have effective experience with ICT to support teaching – if the
teacher has greater technical skills, it will be reflected on students.
Again, with regards to the contradictions in teachers' perspectives towards ICT, Handal
(2011) examined the usage of ICT with secondary mathematics teachers in Australia. He
notes that there are contradictions between teachers; some of them believe that ICT is
beneficial in learning and teaching in the General Mathematics course but not suitable in
the other Mathematics courses (Mathematics “2-Unit”, Extension 1 and Extension 2).
Moreover, there are two reasons for this contradiction: the first one being that the teachers
found ICT detrimental to learning and the second reason is that there is misalignment
between assessment and classroom practice. This result is consistent with what was
described at the start of this section above.
In order to examine the usefulness of ICT in education, evidence needs to be examined
from across the globe. However, there is diversity of opinion; some studies suggest that
instruction in ICT is useful, with Liao (2004) suggesting “it is positive over traditional
instruction in Taiwan”. This Taiwanese study was supported by a Chinese study (Zhou, Hu,
& Gao, 2010) from Shaanxi Normal University. Nevertheless, the second study examined
only chemistry teaching, whereas Liao‟s subject area is not defined. This could indicate
that ICT is less suitable, in some subject areas. This approach raises questions as to what
precisely ICT suits the various subject areas, if such problem ambiguities are resolved by a
fixed, global scale of optimal answers.
The studies of integrated holistic school curriculum have shown that, unlike the studies
concerned with some subject areas, the question of ICT use across the whole school
curriculum is very important (Ward and Parr, 2010). The study of Ward and Parr, situated
in New Zealand, suggested two hypotheses. Firstly, the core academic subjects and their
teaching are often sacrosanct in schools. Furthermore, the subjects are often qualification
25
focused which reflects upon the school, therefore, they suggest that schools are unwilling
to innovate with change of practice or the use of computers. Secondly, they suggest that
even where there is an “overall school policy” that this may be interpreted differently at
departmental level and with each individual teacher: According to this view, “This would
seem to support the view that schools are complex, adaptive systems within which the
adoption of any innovation is likely to follow unpredictable diffusion trajectories” (Ward
and Parr, 2010: 586).
Some studies addressed that the teacher is a key to the organisation and orchestration of
ICT in the classroom since both components have an enormous impact upon how a student
learns (Sang et al., 2010) and can influence the students‟ perception of ICT in the
classroom. Furthermore, this source raises the argument that teachers‟ attitudes should be
challenged (Livingston & Rae 2006). Similarly, Condie (2005) supports the view of Sang
et al. by using the analogy of either paddling at the water‟s edge or actually swimming.
Hence, this evidence seems to suggest that the teacher‟s input is essential when examining
the use of ICT in the classroom. Sang et al. (2010) take this a step further by suggesting
that wading at the edge is not enough and reflects upon teaching competency.
However, one specific pattern of ICT-based studies has recently received a tremendous
amount of attention from educational professionals and researchers. For example, the study
of Al Khateeb (2000) was conducted to identify the attitudes of teachers in Irbid
Governorate, in Jordan, towards instructional technology in relation to some independent
variables such as gender, specialisation and years of experience. The study sample
consisted of 139 teachers (male and female) in public schools located in Irbid Governorate.
The researcher used a questionnaire comprising 40 items, allocated equally into positive
and negative attitudes, during the academic year 1998/1999. The results indicated the
presence of positive attitudes among teachers within the study population regarding
instructional technology. The results also showed that there are significant differences
between teachers' trends toward instructional technology and the scientific qualification, in
favour of those who are holding an undergraduate degree (BA) over those holding a
College diploma (two years of study). Furthermore, the results indicated that there are no
26
significant differences regarding the attitudes of teachers towards instructional technology
between gender, specialisation and experience.
To sum up, the findings in this study provide a new understanding of how teachers
perceive instructional technology and what factors influence their views toward such
technology. Furthermore, it appears that many variables may influence their views but not
all. However, this study has only examined the teachers' attitudes, ignoring students‟
views.
With regards to ICT-based studies, Al Suba'ie (2002), in his major study, aimed to identify
the attitudes of students and teachers on the use of ICT in teaching social studies. The
researcher developed a questionnaire - one of the questions addressed by the study was:
„What are the attitudes of the social studies' teachers and their students toward
implementing ICT as an educational means for teaching social studies?‟. Ultimately, the
results indicated that teachers and students had positive attitudes toward the usage of ICT
in social studies lessons.
Unlike the Al Khateeb study, Al Suba'ie considered the students‟ views in his study in
addition to the views of teachers regarding the usage of ICT in teaching and learning. He
was also specific in addressing content related to the social sciences. However, his
findings could not show any improvement related to academic achievement, at least in
social studies, or any other cognitive or behavioural improvement associated with the ICT
use.
In an overview of good practice in the use of ICT-based technology, Ng & Gunstone
(2003) sought to identify the attitudes of science teachers within public secondary schools
in Victoria State, Australia. Their investigation examined science teachers‟ attitudes
towards the use of ICT in learning. In order to answer this question, the views and
observations of science teachers regarding their teaching science in public schools in
Victoria were collected. Within this study, the obstacles that restricted the implementation
of these technologies in the classrooms were addressed and discussed. The results showed
27
that a majority of the teachers participating were interested in introducing such
technologies within their schools. The results showed also that despite this positivity,
teachers were infrequent in implementing this technology in the classroom.
This study can be considered as diagnostic in presenting the obstacles that limit
implementing ICT-based technology during learning. However, it neglected the students'
views. To be more specific, no suggestion is presented about what technologies to use
within classrooms, or beyond, to increase the students‟ interest and their achievement with
implementing such technologies.
By adopting another form of ICT-based studies, the study of Ong and Lai (2004) relied
upon the Technology Acceptance Model (TAM) in investigating the results of educational
research related to ICT use in e-learning. The researchers attempted to identify the
differences across genders in the perception and relationships toward acceptance of e-
learning control. Their results indicated that male students surpassed female students in
the use of e-learning models. Moreover, females were more influenced in their perceptions
towards implementing ICT, while the decisions of implementing ICT among males were
more influenced by self-perception regarding the usefulness of e-learning. The study
suggested that researchers should take into account the factors of gender in developing and
examining e-learning theories. This study confirms previous findings and contributes to
our understanding of how people, teachers or students, perceive any form of technology in
instruction. In addition, it addresses the effect of gender on perceiving e-learning in
particular.
Similarly, in her recent study, Abdullah (2012) aimed to identify the degree of using ICT-
based technology by teachers at early primary levels in the learning process, as well as
identifying the teachers' attitudes toward this technology. Moreover, the study aimed to
establish whether there are any differences amongst teachers' attitudes regarding the
variables of gender, place of working (governorate), academic qualification, length of
service and training courses. The researcher relied on an analytical descriptive method. A
random sample was selected and consisted of 250 teachers and 90 administrators
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(principal, librarian, computer lab technician) enrolled in public schools located in
Damascus and Al Qunaitera. The study findings revealed that: (a) teachers use ICT-based
technology for learning process and administrative affairs moderately, (b) the degree of
using ICT-based technology as learning aids by teachers was low, (c) the ICT-based
impediments perceived by administrators and teachers were high, (d) the teachers have
high positive attitudes toward using ICT-based technology in learning, (e) many schools
lacked for ICT tools, (f) the students usage for ICT-based technology was ineffective at
both schools, (g) the teachers' gender has no effect on the degree of using ICT-based
technology, (h) the variables of "governorate", "degree of qualification", "length of
service", and "enrolling in training courses" have significant effects on the degree of using
ICT-based technology by teachers, and (i) the teachers indicated a significant contradiction
between their attitudes toward ICT-based technology and the degree of their usage for it in
favour of their attitudes. In fact, this study diagnosed the various factors that may influence
the teachers' attitudes towards ICT. However, it failed to consider the students' views.
Although this study, as well as the previous ones, repeated addressing the importance of
ICT-based technology, its findings can be used to develop targeted interventions aimed to
improve implementing ICT in the best ways possible. Such intervention may include
enhancing teachers' In-service Training regarding innovative ICT-based technology and
managing time effectively.
Some researchers focused on teaching relying on websites content. For example, Al
Bukhari (2007) explored the extent of the importance of using English language websites
on improving the listening and speaking skills of students, from the perspectives of
inspectors and secondary teachers in Jeddah, KSA. Furthermore, the study aimed at
identifying any differences by considering the following variables: age, educational level,
career, years of experience, and number of training courses enrolled in.
In order to achieve the study goals, a questionnaire was used with a study sample
consisting of 344 female teachers and 26 inspectors as an instrument to collect the data
necessary for answering the study questions. The study highlighted that (a) the learning
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sites had a significantly positive impact in listening and speaking skills, (b) female students
were more likely to benefit and that (c) teachers were more positive than inspectors about
impact. The important thing in this study is that it did not rely on a single viewpoint, since
it included inspectors' viewpoints, which would expand our view of the factors that
influence implementing ICT. However, the results identified clearly some variables that
may influence the viewpoints related to using ICT tools.
In another form of using scientific software within school laboratories, AL Qumaizi (2000)
explored the reality of using school laboratories for teaching natural sciences in secondary
schools. The study was conducted in Al-Kharj governorate, Kingdom of Saudi Arabia
(KSA). The study sample consisted of all teachers and supervisors of natural sciences
subject matters in Al Kharj Governorate during the second semester of the academic year
1999/ 2000. The findings of the study showed that teachers of natural sciences (biology,
chemistry, and physics) realise the importance of school laboratories in teaching natural
sciences – emphasising its use as an essential part in teaching these sciences. The total
number of the practical activities showed decrease during the first semester for all grades
(the 1st, the 2nd, and the 3rd grades). The researcher attributes the decrease in
implementing school laboratories to the lack of resources in computer software, in addition
to the presence of other impediments hindering the usage of school laboratories in teaching
science. Despite of the importance of this study in addressing the difficulties that hinder
teaching natural sciences, it addressed using some ICT tools indirectly.
Focusing on the role that ICT plays in teaching computer science, Al Saif (2005) aimed at
evaluating, from female teachers' perspectives, the experience of using ICT in teaching
high school girls within the private sector in the city of Riyadh. The researcher
implemented a social surveying method relying on a systematic sampling basis in order to
support the study. The study population consisted of 2400 teachers enrolled in all private
high schools for girls in the city of Riyadh and extended to 70 schools. A total sample of
600 teachers was randomly selected and received a questionnaire; in addition to 18
computer science teachers were interviewed.
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The findings of the study revealed a mismatch between the number of devices used in
teaching computer science and the numbers of students – which could hinder the
educational process. The study revealed the lack of up-to-date software needed for
practical applications. One of the limitations with this study is that it relies heavily on
teachers' views, similar to some of the other studies. Hence, further research regarding the
role of students would be of great help coupled with empirical data related to improving
achievements or learning conditions.
In a recent study related to teachers' competencies in ICT, Al Shaweesh (2010) conducted a
study aimed to find out to what extent the high schools teachers in Riyadh master the
international certification skills in computer (ICDL), as well as to identify if there were any
differences between high schools' ICDL skills in relation to qualification, years of
experience and training courses in the field of ICT. The study revealed that (a) teachers
were excellent in mastering the use of computers, managing files and word processing but
were less skilled in other areas. Moreover, there was a significant difference in favour of
those teachers who participated in training courses related to computer science and the
extent of teachers' mastery for ICDL skills.
In general, the study was designed to determine the skills of teachers related to using ICT
in addition to the effect of some variables on their ICT skills, from their own points of
view. The findings of this study are in agreement with the previous studies. It should be
noted that this study is still confined to teachers' perspectives. Similar to Abdullah (2012)
and AL Qumaizi (2000), another problem with this study is that it failed to take the
students' perspectives into account.
Some researchers undertook more holistic approach in studying ICT. For example, the
study of Alabdul Kareem (2008) was concerned mainly with identifying the extent of using
e-learning methods within school as well as identifying the patterns of using e-learning and
the differences among participants' attitudes toward the dimensions of study in terms of the
variations in their characteristics and careers. Moreover, the study also aimed to identify
the educational areas and levels where e-learning is used within. Furthermore, it was
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concerned with identifying the positives, negatives, and impediments related to using ICT
in learning.
With regards to using e-learning methods within the Kingdom Schools in Riyadh, the
researcher indicated that amongst the most important features were the presence of a
special site for the school in terms of the internet, the availability of internet in the
computer labs, the teachers‟ general computer knowledge and the presence of available
internet for teachers inside the school. The study revealed the following negatives: the lack
of computers for each student within the classroom; the teachers (males and females) did
not ask students (male and females) to deliver assignments on CDs. In terms of the use of
e-learning within the Kingdom Schools, the most used pattern within the school was co-
operative learning.
In addition, the findings indicated the presence of statistically significant differences, at the
level of significance α ≤ 0.01, between males and females regarding the extent of using e-
learning within school, and regarding the patterns of using e-learning, in favour of females.
Furthermore, no significant differences were found, at the level of significance α ≤ 0.01,
among the study members towards how to use e-learning inside the school and the patterns
of using e-learning in terms of several variables (specialisation, qualification, experience,
and the number of training courses).
With regard to the areas and levels of learning where e-learning is implemented, the
findings showed that computer science subjects represent the most important fields of
study, while secondary grades represent the most levels where e-learning was
implemented.
Whereas positives associated with e-learning included the following: it increases the level
of ICT-friendly culture and enhances ICT skills among the learner, it introduces the
scientific material in an interesting manner, it helps the learner to retain information for
longer periods, it provides the learner with immediate and continuous feedback and it
reinforces the learner's motivation toward learning. In contrast, the following negatives
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were revealed: the presence of electronic illiteracy among parents which reduces their
ability to monitor their children electronically, the frequent use of electronic devices affect
the learners‟ health, the occurrence of technical malfunctions in the devices hinder the
learning process and spending long times facing technical issues can increase social
isolation amongst the learners.
Finally, with regards to the impediments related to implementing e-learning within the
schools, two areas were raised as concerns. Firstly, a lack of finance prevents a computer
for each student, and secondly, the intensity of scientific material within the general
education's coursework hinders the use of e-learning.
The evidence from reviewing the previous literature shows a clear relationship between the
teacher role in terms of the ways in which ICT has been used and the resulting attainment
of students or their attitudes. This suggests that the crucial component in the use of ICT
within learning is the teacher and his pedagogical approaches. However, it appears from
this section that more research is needed to determine the actual impact for using ICT in
instruction. The research should perhaps be experimental-based to detect any
improvements from both teachers, in developing their teaching methods, and students in
gaining more achievements, cognitive and behavioural skills.
2.5 Effective use of ICT in Teaching and Learning, by Subject
2.5.1 Using ICT in Arabic (Subject)
Apparently, using ICT in Arabic lessons inside the classrooms across schools became a
main topic for much discussion. Whilst much research is being undertaken into the effect
of ICT on improving teaching and learning in Arabic lessons, there is still conflicting
evidence about its effect.
Some studies undertook ICT and learning directly. For example, in his exploratory study,
Hassan (2009) interviewed 15 high school students, 17 teachers of Arabic subject matter,
and 4 supervisors of Arabic Language subject matter. The study was conducted in order to
establish the views of students towards e-learning, using the Internet, and the ways in
33
which ICT are used in teaching Arabic language. Specifically, the researcher addressed the
problem of reading comprehension coupled with to what extent ICT is effective in
developing this skill amongst students. The study findings revealed that 13 of the student
sample had positive views towards using the internet in learning, and 16 of the teachers‟
and supervisors' sample taken showed that some students endeavour to use the internet to
gather information and share it with their classmates, as well as having positive attitudes
toward Internet. While all supervisors ken that many students have positive attitudes
towards the Internet, in spite of this they still do not implement this technology
appropriately for learning. In regards to the sample's view of e-learning - provided by some
schools through the Internet - 14 of students' sample taken believe that the provided e-
learning programs related to Arabic Language are not good; since they are not interactive
and the student remains as a receiver, coupled with a paucity in Arabic Language software
provided by ICT. Of course, the teachers and supervisors belief that a creative teacher is
needed, so that learning process became fruitful; and that the creative teacher creates some
kind of interactivity between an ICT program and students. Furthermore, they pointed to
the paucity in Arabic Language programs provided through Internet.
This exploratory sample consisted of teachers and supervisors and suggested that reading
comprehension is currently the most relevant weakness for high school students. Moreover,
the sample's response indicated that the greatest weakness of student's scores in most
subject matters is due to the fact that the student cannot understand the readable material.
In short, the study clarified that the creative teacher is the main factor which underlies
interaction within the learning process by using ICT. However, despite the presence of
specialized ICT tool, the findings emphasized the importance of teachers' role in
introducing it.
Other researchers compared between ICT-based technology and traditional methods. For
example, in her experimental study, Al Zahrani (2005) compared the teachings of Holy
Qur'an subject matter based on ICT, and teaching based on traditional methods. The study
sample consisted of 77 female students divided into two groups: An experimental group
consisting of 38 students who studied Holy Qur'an relying on ICT, and a control group
consisting of 39 students who studied the same lessons using traditional methods based on
34
teachers reciting. Two instruments were applied in this study: the „Attitudes Scale‟ and
„Assessment Questionnaire‟. These instruments were applied on the two groups before and
after intervention. The study demonstrated that using ICT promotes the learning of Holy
Qur'an. However, it did not clarify what factor (the teacher, the students, or altogether)
directed the interaction inside the classroom during the learning process.
With regards to educational software, students' attitudes and saving time, Ahmed (2012)
designed computer software and then examined the role of this software in students'
reading achievement compared with their achievement in learning relying on traditional
methods. He also aimed to recognise the differences between the traditional learning
method and multimedia method according to "time spent in learning" variable, thereupon
identifying the attitudes among the experimental group toward learning relying on ICT. A
total sample consisting of 60 students was divided equally into 4 groups: two groups of
males (control and experimental), and two groups of females (control and experimental).
Results indicated the presence of positive attitudes towards the designed program. In brief,
the study focused primarily on the period of time spent in learning inside the classroom, as
well as the positive role that ICT plays in saving time during the learning process.
Positively, the study relied on empirical data with considering the students' perspectives,
both males and females, towards implementing some ICT tools in specific subject. Such
research would benefit more in identifying the ways that promote teaching Arabic subject.
Unlike Al Shaweesh (2010), Abdullah (2012) and AL Qumaizi (2000) studies, Al Basyoni
(1994) study was conducted in order to clarify the effect of ICT on achievement among
high school students in Arabic language grammar as well as their achievement in written
expression. The study sample consisted of high school students in one of Cairo‟s schools.
The sample was allocated into two groups, control and experimental. An achievement test
was used by the researcher to examine the validity of her study hypothesises. The study
findings revealed that the experimental group achieved positive outcomes in grammar and
written expression. Furthermore, the findings indicated that using ICT impacted positively
on learning. This study relied on the students' perspectives. However, it succeeded in
clarifying the practical role that ICT plays in enhancing the students' achievement.
35
More studies continued on confirming the findings that support the positive role of ICT on
students' achievement in Arabic subject. For example, Al Jaraydeh (2003) conducted a
study aimed to investigate the effect of ICT-assisted instruction on the first secondary
grade students in Arabic Language grammar. The study population consisted of all first
secondary grade students, at literary branch, enrolled in public high schools located in Al
Mafraq Governorate, Jordan, for the academic year 2002/2003. The total number reached
1152 students (males and females), the sample consisted of 120 students (males and
females), where 60 of them studied relying on ICT-assisted method, whilst the remainder
studied relying on traditional methods. The instrument consisted of an achievement test of
the multiple choice type that comprised 46 items distributed on educational objectives
according to Bloom's levels (knowledge, comprehension, application).
The study revealed that statistically significant differences were found in the level of
achievement among the first secondary grade students in Arabic grammar in favour of
ICT-assisted method. Additionally, the results show a statistically significant differences in
the level of achievement among the first secondary grade students in Arabic Language
grammar, in favour of females. The results of this study were consistent with Al Basyoni
(1994) study since it indicated the role of ICT in enhancing the students' achievement.
In a qualitative study related to Learning Packages and self-learning, Albertson and Felix
(2001) aimed to clarify the effect of using ICT on developing creative writing skills
amongst gifted students. They looked at two gifted students, one male and one female,
who were enrolled in the seventh grade as indicated in their school records and teachers
reports. A longitudinal study was selected so that more than one story can be written at
separated intervals. Learning packages; provided with strategies to guide students and help
them on how to: write in a creative manner, increase fluency during writing, plan, set
goals, and control time; were designed. After training, however, the students wrote seven
stories at separated intervals relying on ICT. An instrument was developed to measure
student progress in writing, whereby the written stories were presented to a group of
arbitrators. The evaluations related to stories showed that the stories were higher in overall
quality than the stories being written earlier, the students' fluency increased and they were
able to include more elements in the stories within a shorter time of writing. Without any
36
doubt, these signals may be used to help the observer make clear judgments related to the
level of involvement that child shows during implementing ICT-based activities.
2.5.2 Using ICT in English (Subject)
The spread of English around the world has introduced new models of teaching languages.
Among these is using ICT tools in innovative and practical ways. Using ICT within
English classrooms is still very much perceived as a novelty by researchers and both
teachers and students. Nevertheless, ICT's potential in enhancing learning within English
lessons stills controversial.
The use of ICT in English classrooms across schools became a topic for much discussion.
For example, the study of Zayli'e (2007) was concerned with investigating the effect of
using computer programmes as an instructional mean in teaching English grammar (verb
tenses: Past / Present / Future) on students' achievement among first secondary graders in
Jeddah. This was measured in terms of knowledge and comprehension levels revealed by
Bloom's Taxonomy of cognitive objectives, in comparison with traditional methods based
on verbal presentation and using of whiteboard and coloured markers. The study relied on
a quasi-experimental approach, where the study was applied on a sample consisted of 42
students enrolled in the first secondary grade, who were allocated from Jerusalem High
School in Jeddah during the second semester of the academic year 2006/2007.
The overall study sample has been divided into two groups: experimental, which consisted
of 22 students who studied the targeted grammar using ICT as an educational mean; and a
control group which consisted of 20 students who studied the same grammar using
traditional methods based on verbal presentation, using textbook, and whiteboard and
coloured markers. The study instrument was an achievement test, which had been
arbitrated and assured in terms of its validity and reliability before application on the two
study groups. The study findings revealed significant differences, in favour of the
experimental group, in students' achievement in knowledge, comprehension and the entire
post-test. In general, the findings of this study support the previous studies that clarified the
practical role of ICT in improving the quality of learning and teaching.
37
Comparatively, the study of Al Ghamdi (2010) was concerned with identifying the effect of
using e-learning (i.e. an internet-supported or assisted electronic course) as an instructional
aide in teaching English language grammar (i.e. both past simple and present perfect
tenses) on first-secondary graders' achievement. Essentially, the study aimed to compare e-
learning approach with traditional methods of using textbooks and whiteboard with
coloured markers. This relied on three goals (memory, comprehension, and application)
according to Bloom's taxonomy of educational objectives.
The researcher employed a quasi-experimental method. The study was applied on a sample
consisting of 60 first-secondary grade students enrolled in Bani Dhabian Secondary School
located in Al-Baha Region, KSA. The sample was divided equally into two groups, the
experimental one that studied the targeted grammars relying on e-learning, while the
control one studied the same grammar using traditional methods, during the first semester
of the academic year 2009/2010.
To achieve the study goals, an achievement test, prepared by the researcher, was applied on
the study sample that included the first three levels (remembering, understanding, and
applying) according to Bloom's Taxonomy of cognitive goals. The test was applied on
each group twice, pre- and post-teaching. That study showed that there were significant
differences were found in favour of e-learning, between the achievement's average scores
of students who studied English language grammar using e-learning and their peers who
used traditional methods in memory, comprehension, application and overall. Of course,
there is increasing evidence that ICT can improve learning, especially since the advent of
Internet (Alabdul Kareem, 2008; Al Ghamdi, 2010; Hassan, 2009).
In relation to instructional technologies, another study was conducted by Al Juhani (2011)
aimed at measuring the effect of instructional electronic games on academic achievement
in English courses amongst female students at intermediate secondary stage. The
researcher focused on designing instructional electronic games in order to develop the
concepts of English subject matter among her students. She adopted a descriptive approach
in order to attain the special standards for evaluating instructional electronic games as well
38
as a quasi-experimental approach in order to apply the instructional electronic games on
the study sample. Additionally, she aimed to identify the effect of the independent variable
(the instructional electronic games) on the dependant variable (developing achievement).
The population consisted of female students at intermediate stage in KSA while the
random study sample consisted of 72 female students enrolled in an intermediate school in
Jeddah. The samples were distributed equally into experimental group (instructional
electronic games group) comprising 36 students and control group (traditional learning
group) comprising 36 students.
The study followed a continuum of steps that are: defining the concepts under question,
designing instructional electronic games and introducing it for a group of arbitrators,
applying the pre-test, applying the instructional electronic games on the experimental
group, applying the post-test. Finally, they used statistical procedures in order to calculate
the differences among the two groups. The study revealed that significant differences were
found, at the level α = 0.05, between the averages of students' scores in the experimental
and control group in terms of post-test in favour of the experimental group.
In fact, researchers have demonstrated that using some ICT tools benefits students better
than relying on traditional methods, for example, Al Jumhor (1999) conducted a study
aimed at recognising the effectiveness of using computers and multiple programs in
teaching English as a foreign language. The objective of the study was to define the
features of ICT use which outperform regular teaching. The sample in this study consisted
of 64 students from the first secondary grade enrolled in Prince Sultan educational
complex in Riyadh. The study sample was divided equally into two groups: an
experimental group comprising 32 students who studied using ICT, and control group
comprising 32 students who studied using traditional methods. The key findings shown by
the study were differences (all in favour of the experimental group using ICT) for
remembering and understanding but not in application of methods.
39
This usage, in turn, is assumed to enable individuals to raise their learning. For example,
Al Jadmawy (2000) carried out an investigation to identify the effect of using ICT in
teaching on the achievement and the retention of learning amongst first-year intermediate
female students in English language coursework. The researcher used pre-prepared English
learning software. The study instrument was an achievement test that assesses leaning at
the first three levels (remembering, understanding, application) of Bloom's Taxonomy of
cognitive objectives. The study sample was divided into two groups: an experimental
group comprising 27 students who studied relying on ICT-assisted learning, and control
group comprising 26 students who studied relying on traditional methods. Contradictory to
the previous studies, here no significant differences were found between the average scores
of the experimental and control group in achievement, as well as in retaining information
related to the targeted lessons. In Addition, no significant differences were found between
the two groups at understanding level. The researcher attributed these findings mainly to
the teacher, who was judged to be unqualified to implement ICT in the learning process.
This is a key finding, the link between successful application and that of effective teaching.
For this reason, a number of researchers have been working in recent years to determine
why is implementing ICT is not sufficient for improving students' learning (Al Shaweesh,
2010; Mukama & Andersson, 2008).
In a similar study, Qadeh (2000) studied the effectiveness of using ICT-assisted learning in
teaching English grammar at the first three levels (remembering, understanding, and
application) of Bloom's Taxonomy of cognitive objectives among second secondary grade
students in Holy Mecca city. The study sample was divided into two equal groups: an
experimental group comprising 29 students who studied relying on ICT-assisted learning,
and a control group comprising 29 students who studied relying on traditional methods.
The findings revealed that there were significant differences between the average scores of
the experimental group and control group in the skills of remembering and application, in
favour of the experimental group.
In a more recent study, Al Sanee (2012) aimed to identify the effect of using ICT in
teaching a unit from the English coursework "Structure 110" on the achievement of first
level female students enrolled in English department at Umm Al-Qura University. The
40
teaching objectives were set according to Bloom's Taxonomy of cognitive objectives
(remember, understand, apply, analyse, synthesise). The study also aimed to compare the
students' learning based on two methods: ICT-assisted learning and a traditional method
that uses verbal presentation and whiteboard with coloured markers.
The study sample consisted of 54 female students allotted to two groups: an experimental
group comprising 29 students who studied relying on ICT-assisted learning, and a control
group comprising 25 students who studied relying on traditional methods.
The finding revealed that there was a significant difference between the average scores of
the experimental group and control group in the skills of remembering, understanding, and
application, whilst no significant differences were found between the two groups at level
synthesis. The overall pre-test average for the experimental group surpassed the average of
the control group.
Similar to Al Sanee (2012), an experimental study was conducted by Al Suoqy (2001) to
determine the effect of using ICT in the „Teaching Level Two‟ composition on the writing
performance of tenth grade students in Amman private schools.
A sample consisted of 37 students were divided into two groups: an experimental group
comprising 20 students, and control group comprising 17 students while the study
instrument represented an achievement test. The findings revealed that ICT had positive
role on students' language performance in studying composition in English. This
conclusion is based on statistically significant differences that were in favour of the
experimental group.
As is apparent, researchers have provided some evidence to support the assertion that using
certain ICT tools contribute in improving students' language performance in English
subject.
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2.5.3 Using ICT in Mathematics (Subject)
The availability of ICT has changed the nature of teaching and learning in mathematics.
Hence, to judge just to what extent and how ICT may enhance teaching and learning in
mathematics, it is necessary to examine the available research evidence.
In fact, the majority of ICT-Mathematics studies focused on the gains that students may
have by implementing some of ICT tools. For example, Al Balawi (2000) undertook a
study aimed at identifying the effect of ICT on the retention of learning during the teaching
of a statistics unit at the level of remembering, understanding, and application. The study
sample comprised 66 students who were divided equally into two groups: an experimental
group consisted of students 33 students who studied relying on ICT-assisted method, while
the control group consisted of students 33 who studied by traditional methods. The
findings of the study revealed that there were significant differences in the skills of
understanding and application, and the overall post-test in favour of the experimental
group.
In order to improve students' skills in mathematics, the study of Rendall (2001) was
concerned with recognising the effectiveness of ICT-assisted teaching for mathematics in
algebra and geometry topics (Invest learning programs) for rural public schools students.
The study sample consisted of two groups: experimental and control groups with a total
number of students amounted to 120. The 80 students of the control group studied over
three semesters using traditional methods, while the experimental group comprised 40
students who studied using ICT-assisted methods. The study indicated that ICT-assisted
teaching was more effective in raising the arithmetical and logical skills in mathematics
compared with traditional methods.
Jabr (2007) investigated the effect of using ICT on seventh grade students' achievement in
mathematics, compared with traditional methods in addition to identify the teachers'
attitudes towards using ICT as a learning aid during the academic year 2006/2007. The
sample size encompassed 94 seventh grade students, males and females. The students
42
were enrolled in two schools, one for boys and the other for girls. The teacher sample
consisted of 37 mathematics teachers. The students were divided into two groups: An
experimental group comprised 47 students who studied relying on ICT consisting of 24
males and 23 females. The control group consisted of 47 students who studied via
traditional methods, split similarly to the one in the experimental group. This study
attempted to answer the following two questions:
The study findings revealed that there were significant differences between the average
achievement amongst seventh grade students after both methods were applied (ICT and
traditional) in favour of the ICT method. No significant differences were found regarding
gender or the interaction between teaching method and gender. Additionally, positive
attitudes among mathematics teachers were found toward using ICT as a learning aid in
teaching mathematics.
In a study related Geometry, Al Abadleh's study (2006) aimed to find out the effectiveness
of using ICT in teaching solid geometry, geometrical reasoning, and spatial visualisation
among second year secondary grade, at scientific branch. The study sample involved 112
students from second secondary grade who were selected from two schools located in
UAE: Helwan High School at Sharjah and Al Nu'man bin Basheer High School at Ajman.
The researcher used a computer program for the unit of solid geometry, an achievement
test, a scale for geometrical thinking according to Van Hill's levels, and the „s‟ scale for
spatial ability. The study addressed the main following question: „what is the effectiveness
of using ICT in teaching solid geometry and its effect on academic achievement
geometrical reasoning, and spatial visualisation among second secondary graders at
scientific branch?‟
After applying the experiment and analysing the findings, the researcher found that the
proportion of gain set up for Black equals 1.47 that was higher than the line set by Black
(1.2) as a minimum line for effectiveness, indicating the effectiveness of using ICT in
teaching mathematics. Also significant differences were found, at the level α = 0.05, in the
post-test between the average scores of the control group that used traditional methods and
43
the experimental group that studied vacuum geometry using ICT, in favour of the
experimental group.
By combining both students' attitudes and achievement, Hussein's study (2000) aimed to
investigate the effect of teaching mathematics enhanced by ICT on the students' attitudes
and their achievement in „circle‟ unit for the second secondary grade, at scientific branch,
in Doha, Qatar. The researcher selected four schools, and then the sample was divided into
four groups, two for males and two for females. Two groups, males and females, studied
relying on traditional methods while the other two studied relying on ICT. The researcher
confined his study to the „circle‟ unit from second secondary grade curriculum during the
first semester, because of the ease of ICT application, and for the difficulty of the mental
processes that this unit requires. It is notable that the researcher selected schools
dominated by Qatari students. Ultimately, after the data being analysed, statistically
significant differences were found in favour of the group that studied relying on ICT.
Similar to Hussein's study (2000), Mawata (1998) studied the effect of using ICT on the
achievement among high school students and their attitudes towards mathematics. For this
purpose, the researcher prepared a series of lessons related to conversions' engineering by
teachers who were teaching this coursework. Additionally, he undertook teacher training
on developing Java Applet software and using Java language, to make learning from web
pages more interactive. The study sample consisted of 163 students enrolled in three high
schools within Baltimore, USA. The findings indicated that students' achievement was
high according to the achievement test. Furthermore, the findings indicated the presence
of a positive growth in attitudes towards mathematics from the study sample.
In another study related to learning geometry through mathematics, Shunaq (2002)
investigated the effect of using ICT on achievement among seventh grade female students
through a comparison of three methods: cooperative learning with using ICT,
individualised learning with using ICT, and the traditional learning method. All students
studied the same lessons on Areas and Volumes. The study examined the impact of both
teaching method and the use of ICT.
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The study sample consisted of 72 female students from the seventh grade enrolled in Al-
Andalus High School, Irbid governorate, Jordan. The sample was selected randomly and
then distributed into three groups: The first group studied collaboratively (by triple groups)
relying on ICT, the second group studied individually relying on ICT, and the third group
studied relying on traditional methods.
The findings indicated that there were statistically significant differences, at the level α =
0.05, among the seventh grade students' achievement in relation to the learning method and
in favour of collaborative and individual learning compared with traditional methods.
Furthermore, there were statistically significant differences, at the level α = 0.05, relating
to the students' performance on the achievement test in favour of high achievement
category, compared with moderate and low achievement categories. However, the findings
did not reveal the existence of significant differences at the level α = 0.05, for the
interaction between the level of achieving and learning method on the students'
performance on the post-test.
Clark's study (2005) aimed to identify the effect of ICT use in teaching geometry for
academically talented students at high intermediate stage. The study sample consisted of
50 students from ninth and tenth grades. The sample was divided into two groups: the
experimental group that comprised 25 ninth grade students enrolled in Hispanic School,
who studied geometry relying on ICT, and the control group that comprised 25 tenth grade
students enrolled in Florida School, who studied geometry relying on traditional methods.
With respect to instruments, Florida competency achievement Test, and teachers'
observations were used. The Florida test was applied before and after teaching the same
lessons for both groups. Then, a comparison was conducted between the averages of
scores to measure the students' progress. After collecting and analysing data, the findings
revealed that there were statistically significant differences in students' achievement in the
experimental and control groups in favour of the experimental group. Like most of the
previous ICT studies related to mathematics, this study has notable strengths and
concerning weaknesses. The most important contribution of the study is its ability to
identify the gains in mathematics that students may attain relying on ICT-based
45
technology. In contrast, the study's most prominent weakness is its heavy reliance on the
use of conventional ICT tools as well confining its goals to achievement.
The study of Uribe, Klein, & Sullivan (2003) was concerned with identifying the effect of
„Computer-Mediated Collaborative Learning‟ on solving „ill-defined problems‟. The study
addressed the following main question: „What is the effect of Collaborative learning by
using computer as mediation on student achievement in solving ill-defined problems?‟.
This study emerged in the light of the paucity in empirical studies related to this topic.
Firstly, the participants received training on how to use a learning program available on the
internet that teaches them the process of solving the problem through four steps associated
with solving ill-defined problems. The participants worked within in either pairs or as
individuals in order to apply the practical steps of solving the problem.
The findings revealed that participants who worked in pairs were more effective than
participants who worked alone. In addition, the findings revealed significant differences in
the amount of time students invested in the work, with „paired‟ students working for longer
than individuals. Also the findings indicated that the two experimental groups have had
positive attitudes towards collaborative learning and ICT-based learning using the World
Wide Web.
Some researchers focused on improving students' ability in solving mathematical problems
relying on computerised method, for example, Egbert & Cor (2006) sought to assess the
effect of using ICT in improving students' ability to resolve mathematical problems relying
on computer program among high school students.
For this purpose, two programs were designed so that each one provided the student with a
problem. This was accompanied by lessons to support the student in problem solving. The
first program relies on a direct instruction approach, while the second relies on a
constructive instruction approach. The researcher selected four classes to teach them by
using the first program as well as he selected another four classes to teach them by using
the second program. As a result, the eight classes represented the experimental group.
Additionally, he selected five classes that represented the control group. It was hoped that
46
the second method would be useful for underachieving students. The researchers used the
previous computer programs at three periods of time, each period consisted of two
consecutive weeks. Subsequently data were collected and analysed.
The findings indicated that both programs contributed to improve the ability to solve the
problem in a better way than traditional methods during mathematics learning. Contrary to
the expectations of the researchers, students from both „underachievers‟ and „outstanding‟
categories have benefited equally from the use of the computer program. Specifically, the
programs helped students in the analysis and verification during resolving the problem.
In concordance with the previous research, Al Ibrahim (2005) investigated the impact of
teaching methods supported by using ICT on the achievement of eighth graders in
mathematics, in addition to their attitudes toward both mathematics and the use of ICT in
mathematics teaching.
A total sample of 115 students (males and females) was taken. The eighth grade students
were enrolled in two schools located in Irbid governorate, Jordan: Ibin Zaidoun elementary
School for boys and Al Nu'aimeh Secondary School for Girls. The sample was divided
randomly into two groups: control and experimental, where the experimental group studied
using software developed by the researcher, while control group studied relying on
traditional methods. The study lasted for almost two months. After applying the study
instruments and analysing the data, the study revealed the presence of statistically
significant differences, at the level of α = 0.05, between the averages of achievement
among eighth grade students in relation to the teaching method supported by using ICT, in
favour of the experimental group. Furthermore, the findings revealed the existence of
statistically significant variation, at the level of α = 0.05, between teaching methods and
gender on the achievement among eighth grade students in mathematics, in favour of
males.
In another similar study related to achievement and teaching method, Subeh (2001)
investigated the effect of teaching mathematics using ICT on the achievement amongst
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first-year secondary graders, at scientific branch, as well as their attitudes towards ICT.
The study sample consisted of 60 students enrolled in two private schools located in
Amman, Jordan. The study addressed two key questions: What is the effect of using ICT
for teaching mathematics to first-year secondary grade students, at Scientific Branch, in
Jordan? And: What are the students' attitudes toward ICT as a method for teaching?
In order to answer these questions, the sample was divided into two groups: experimental
and control, where the experimental group studied a vectors unit relying on ICT, while the
control group studied relying on traditional methods. Two achievement tests, pre and post,
were administered in addition to an attitudes' questionnaire. The findings indicated that
statistically significant differences were found on students' achievement in favour of the
experimental group who used ICT methods, as well in the independent variable of gender,
in favour of males.
In his investigation, Jabr (2006) explored the effectiveness of teaching methods based on
self-directed learning strategies to teach geometry and geometrical problems, and students'
attitudes towards this method. In order to achieve this goal, the researcher prepared and
computerised the geometrical material for a ninth grade unit, using ICT-directed inquiry.
The study aimed to establish differences between the students in geometry and problem
solving dependent upon the teaching method involved.
A total sample of 159 ninth grade students‟ males and females was allocated from two
schools affiliated with the International Relief Agency (UNRWA) in Nablus region, PNA.
80 male and 79 female students were selected using a stratified method. The study sample
was divided into four groups: two groups for males and two for females by using random
pairing. Then, the students in each school were allocated to two groups: an experimental
group that studied geometry using ICT-directed inquiry, and a control group that studied
the same topic relying on traditional methods. The researcher implemented a questionnaire
to measure the students' attitudes toward geometry in addition to two achievement tests.
The research worked on an initial hypothesis that there is no significant difference between
the teaching methods.
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The findings revealed the existence of significant differences between the arithmetic means
of students' scores in the experimental and control groups according to the achievement
test in geometry, in favour of the experimental group. Similar results were found when the
analysis was applied to the teaching of geometrical problems.
In fact, all the studies explicated above, with one exception for Jabr (2007) who expanded
his study by addressing the teachers' attitudes, addressed the effect of ICT on the students'
achievement and attitudes in mathematics.
All in all, evidence from the previous studies showed that ICT had a positive relationship
to students‟ learning of mathematical skills and the results varied according to the amount
and type of using ICT in the mathematics curriculum.
2.5.4 Using ICT in Sciences (Subject)
In fact, a considerable body of literature exists on the use of ICT in science subjects across
a range of topics and age levels. Furthermore, research indicates that ICT can play a major
role in enhancing and extending practical work.
For example, in a study of 300 students (males and females), Al Essa (1993) compared the
use of ICT in teaching and learning, in science, to the use of traditional methods. The
study sample was divided into two groups: the first group was experimental and consisted
of 150 students who studied through the use of ICT, while the other was a control group
consisting of 150 students who studied using traditional methods. The results indicated that
statistically significant differences were shown in the immediate achievement using
simulation strategy implemented by using ICT, with a greater impact for male students.
In a study related to Science, Scardamalia and Bereiter (2000) investigated how to utilise
ICT as a knowledge-supporting material in science lessons. The study involved 1110
primary and secondary school students who were divided evenly into two groups according
to their stages. The study was conducted in Seoul, South Korea. The effectiveness of
49
using ICT as a knowledge-supporting material was evaluated. The experiment lasted three
years, and the findings indicated that 76% of the students increased their interest in
obtaining knowledge through using ICT. In addition, the primary school students showed
dramatic improvements in terms of memorising, retrieving information, and using
computers, greater than the impact on their peers in high school.
Some researchers addressed the teachers' views toward ICT and Science by aiming to
provide an accurate statistical data related to ICT and science teaching. For example, Al-
Hadlaq (2003) explored the extent of recognising and using ICT in teaching science within
Kuwait by sciences teachers, male and female. The study sample consisted of 145 science
teachers who taught the stages in Kuwait during the academic year 1999/2000.
The study‟s findings showed that most commonly used computer programmes were
animation programs and word processing programs, while the least commonly used were
electronic scientific encyclopaedias and learning software such as modelling and
simulation programs. Moreover, No differences were found between male and female
science teachers in Kuwait with regards to: (a) Their general use of ICT, (b) Teaching
computerised course(s), and (c) The usage of ICT by their students within science lessons.
Furthermore, A number of differences were found between male and female teachers in
regard to their use for ICT within science lessons, in favour of male teachers.
The study concluded a number of recommendations of which, suggesting that teachers'
pre-service training should include studying more a minimum of two computerised courses
and that computerised courses provided to teachers in pre-service training should include
an explanation of how to integrate ICT within various educational materials, in particular
in science. The most interesting thing with all of these studies that they bring with them,
cumulatively, challenges which may have resulted in innovative responses and activities
underlying great benefit for the development of ICT skills among both teachers and
students.
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Shdaifat and Irshaid (2007) aimed to identify the effect of ICT on achievement among
eighth grade students in science subject matter learning through the use of ICT, compared
with traditional methods. In addition, the study addressed the effect of gender as well as the
interaction between teaching method and gender on the students' achievement.
The study population consisted of all eighth grade students enrolled in Al Mafraq
Directorate of Education, Jordan. The study sample consisted of 180 students enrolled in
schools within Al Mafraq City during the first semester of the Academic year 2005/2006.
The sample was selected and distributed randomly into six groups: two control groups that
comprised 60 male and female students taught using traditional methods, the first two
experimental groups that comprised 60 male and female students, who were taught using
the ICT, and the second two experimental groups that comprised 60 male and female
students who were taught using the Internet. The study instruments included unit 5 (earth
and space sciences) from the science curriculum as a study material. This unit was taught
for five lessons a week, for four weeks. After the completion of teaching unit 5, an
achievement test was introduced in order to assess achievement. The test consisted of 30
multiple choice questions. To assure the instrument's validity, it was introduced to 10
arbitrators. Also the test reliability was assured relying on Richardson-Kuder equation
(KR-20) where the reliability coefficient equalled 0.89. With respect to results, the study
showed that there were significant differences in favour of the two experimental groups. In
addition, there were statistically significant differences in relation to the interaction
between teaching method and gender, that is, there is a statistically significant interaction
between gender and the method of teaching in its impact on the dependent variable.
In a study related to chemistry, Paddy (2001) indicated that there were no statistically
significant differences in achievement among students who have learned through ICT and
those who have learned through traditional methods. Furthermore, and unexpectedly, there
were no statistically significant differences in achievement among students who studied
through ICT and those who studied through traditional methods regarding retaining
information.
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Against all the expectations, the study of Al Hudhaifi and Al Doghaim (2005), also
highlighted that there were no differences between the achievements of students studying
through ICT and those not, according to the scientific thinking scale for the second
secondary grade students in chemistry. Additionally, there were no statistically significant
differences between an experimental and control group scores in the hypothesis testing
skill and interpretation skill. There were, however, statistically significant differences in
generalisation skill according to scientific thinking.
In another study concerning chemistry, Al Omar (2001) sought to identify the effect of ICT
on direct and delayed achievement among the first-year secondary grade students, at
scientific branch, in chemistry. The study population consisted of all first-year secondary
grade students enrolled in public schools located in First Irbid District in Jordan. The
sample consisted of 114 students from two schools, one group for boys and the other for
females. Two classes were selected by simple random method from each school. The
researcher used computerised learning software that included unit 1 from chemistry
textbook for first secondary grade, an achievement test, and pre-prepared notes related to
the teaching of modern atomic theory and the periodic table.
The researcher found a statistically significant difference, at the significance level α ≤ 0.05,
on the direct achievement in relation to the teaching method, in favour of the experimental
group. Also there were statistically significant differences, at the significance level α ≤
0.05, in relation to gender in favour of females. No significant differences were found, at
the significance level α ≤ 0.05, in the direct achievement amongst students in relation to
the interaction between teaching method and gender.
With respect to the delayed achievement, statistically significant differences were found in
delayed achievement in relation to the teaching method in favour of the experimental
group, while no significant differences were found in delayed achievement in relation to
gender or the interaction between teaching method and gender.
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In his experimental study related to chemistry, Shepr (2003) aimed to identify the effect of
using ICT in helping students to learn chemistry. The study sample was comprised of 106
first secondary grade students enrolled in Bahraini schools. The study findings indicated
that the performance of students who learned using ICT within the two experimental
groups had increased in comparison with the students performance within control groups at
a statistically significant level of α = 0.01. The findings indicated that the using of ICT
was highly effective in helping students to learn Chemistry.
In a study related to physics, Al Mustafa (2000) investigated the effect of using teaching
methods reliant upon ICT on the achievement among ninth grade students in physics,
compared traditional teaching methods. The study sample consisted of 80 students (40
males and 40 females) who were selected from two schools located in the county of
Northern Jordan Valley, Jordan. An achievement test was used that related to the topic of
"electromagnetic induction" from the national curriculum. The test consisted of 20 items,
where 9 items were right/wrong questions, and 11 multiple-choice. The researcher
developed a measuring instrument to investigate the changes brought about by the
computerised teaching method on the students' attitudes, which comprised 30 items. Also,
learning software was designed on the topic of electromagnetic induction. The
achievement test was applied before and after intervention.
The study revealed statistically significant differences, at significance level α = 0.05, on the
achievement amongst ninth grade students in physics relating to the teaching method, in
favour of the experimental group that studied by computer. There were no statistically
significant differences on the achievement among ninth grade students in physics, in
relation to gender or the interaction between the teaching method and gender.
In another study concerning physics, Al Sharhan (2002) explored the effect of using ICT
on the achievements of first-year secondary graders enrolled in one of Riyadh schools in
KSA, in physics, investigating the skills of remembering, understanding, and application.
The study sample was divided into two groups: an experimental group that comprised 25
students who studied relying on ICT, and the control group that comprised 25 students who
studied relying on traditional methods. The results showed that there were no statistically
53
significant differences, at the level α = 0.05, in the remembering level between the two
groups of study, while he found a statistically significant differences, at the level α = 0.05,
in the understanding and application levels, in favour of the experimental group.
By focusing on Optics, a major field in Physics, Jaber (2004) studied the effect of a
teaching method using ICT on teaching the conceptual change model amongst eighth-grade
students studying „light as a field of optics‟ within a public school located in Irbid, Jordan.
The study sample consisted of 52 female students who were distributed randomly into two
groups: A control group that was taught according to the conceptual change model and an
experimental group that was taught according to conceptual change model coupled with
the use of ICT. The findings did not indicate of the existence of statistically significant
differences at the significance level α = 0.05 between the control and experimental groups,
in relation to the variation in teaching methods.
In a study concerning earth sciences, Chang (2002) conducted a study to clarify the effect
of ICT problem-solving methods on the achievement amongst tenth grade students in earth
sciences subject matter in Taiwan. The study sample consisted of 78 male students and 78
female students who were distributed into four experimental subgroups, while 69 male
students and 69 students were distributed into four control subgroups. The two groups
were taught the same subject (floods), using problem-solving methods for the experimental
group and lecturing methods for the control one. The researcher found statistically
significant differences among the tenth grade students, in favour of the experimental group.
With respect to ICT and biology, Lutfi and Al Ajlouni (2003) conducted a study to
investigate the effect of using ICT as method for teaching biology on the achievement of
tenth grade students, in comparison with traditional methods of teaching. The study
sample consisted of 68 students, 39 male and 29 female, enrolled in two private secondary
schools located in Amman, Jordan, for the academic year 1999/2000. The sample was
divided into two groups: a control group that included 20 male students and 14 female
students with total number of 34 students, and an experimental group that included 19 male
students and 15 female students with a total number of 34 students. In both groups, males
and females studied separately. Within this study, an achievement test was used for
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biology subject matter, which included 33 multiple-choice items. The test was applied
prior to and after the intervention. In addition, an achievement computerised program in
biology was used to study genetics and then was applied on students within the
experimental group. The findings indicated that statistically significant differences were
found in students' achievement in biology, in favour of the groups using ICT.
In this study, no statistically significant differences were found in students' achievement in
relation to gender. Finally, a positive change was found in students' attitudes towards ICT
after intervention, compared with the control group.
In general, most of the research related to ICT and science showed the positive effects of
using ICT on students' achievement in science. This type of usage, in turn, is assumed to
enable individuals to raise their learning in the different aspects of science.
2.6 Using ICT in International Teaching
In international education, the same trends seem to be found in most countries. As stated
previously there has been some innovation in pedagogical strategy and many successes
using ICT, but there has not been a major breakthrough in terms of a revolutionary use of
ICT in relation to new pedagogical strategies. The old teacher-centred, transmission-based
paradigm is still very much evident in international secondary schools. A new paradigm or
framework is desired by almost every researcher but as yet teachers seem to be using
multimedia and the Internet as a „big book‟ to teach from, rather than seeing knowledge as
something to be discovered. Many countries are attempting to achieve the highest results
in ICT in both subject specialist use and in the teaching of ICT itself. What is not
happening overall however, is the strong application of a student-centred paradigm.
While studying the situation in Chile, Hinostroza, Guzman and Isaacs (2002) examined
seven innovative attempts to embed ICT in Chilean schools and analysed related
pedagogical strategies by teachers. They summarised innovative characteristics and
analysed the results of their study. They found that in terms of ICT the aims and objectives
55
of the national curriculum had not been achieved. However, positively, students had learnt
cross-curricular skills through the use of ICT.
In Sweden, Jedeskog and Nissen (2004) reported that the introduction of ICT had led to
some changes both in the teachers‟ role and pupil autonomy. ICT use in nine different
schools was researched and the author found there had been a shift in focus from „content
to form‟. Also further research found much greater fluidity in the use of school facilities
because of ICT, with the result that teachers had greater difficulty with controlling the
learning process (Jedeskog and Nissen, 2004).
In Australia, Hayes (2007) researched six public schools and discovered that Australian
teachers were using ICT in a conservative teacher-centred manner. The author wished to
see „a more fundamental shift in the core activities of schools‟ in relation to ICT use
(Hayes, 2007: 49).
In Norway, Erstad (2002) investigated the implementation of ICT in relation to students‟
construction of knowledge. Three case studies were undertaken and a surprising result was
the finding of a diversity of learning cultures initiated by ICT implementation. The
Netherlands have made some progress too. Mooij (2004) developed a multi-level
theoretical framework to analyse research carried out in the Netherlands from 1999 to
2002. This framework combined educational and technological criteria in an attempt to
optimise computer-supported instruction. The outcomes of the study were used to argue
for new pedagogical strategies and to construct software e-functions for school
management systems.
In Israel, Mioduser, Nachmias, Tubin and Forkosh–Baruch (2002) analysed data in relation
to innovation in pedagogical strategies in ICT. These authors developed an innovative
analysis schema which characterised ICT-based educational innovation. The authors found
that most schools were in a transition stage to a newer more student-centred position.
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Research conducted in ICT use in Science teaching in 28 Saudi Arabian schools and in five
cities, found that Saudi teachers did not have full access to ICT resources. It was found
that there was a lack of appropriate professional development. The research was focussed
through the interpretive paradigm of how people made sense of ICT use (Abdulwahab,
2008).
In Slovakia, Kubiatko and Halakova (2009) analysed age and gender variables in relation
to ICT teaching in nine high schools and divided their questionnaire-style survey into five
areas. These explored the positive and negative influences of ICT, the advantages of ICT
use, use of ICT in biology lessons and the disadvantages of using ICT. Male students were
found to have more positive attitudes towards the use of ICT than their female counterparts
and the younger students were more positive about ICT use than the older students.
In the UK, Ruthven, Hennessy, and Deaney (2005) examined the pedagogical perspectives
and strategies of eight teachers attempting to integrate ICT and Internet use into their
lessons. Each of the five projects they undertook had distinctive features so that Internet
resources were used in lessons. Pupil access to the internet was supported and structured,
students were engaged in the process and a sense of capability was developed. In addition,
ICT tools were developed to support subject learning. Success in certain curricular areas
seemed particularly fruitful after the embedment of ICT, particularly coursework projects.
Therefore current literature shows that many countries are moving towards a new
paradigm, yet evidence continues to be mixed in terms of its impact. Furthermore, there
has been long controversy around the notion of relying on ICT completely.
2.7 The Differences between gender and ICT use and Effectiveness
Whilst much of the research that has been considered in this thesis includes an analysis of
the variation of impact on males and females (of using ICT related teaching methods), here
the research considers studies that have explicitly sought to identify the gender „gap‟ in
ICT use.
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Several studies were carried out over time in an attempt to find an answer on the issue of
differences between the two genders with regard to attitudes towards ICT and its use
(Dorn, 1997; Liao, 1999; Meelissen, 2008; Whitley, 1997; Boser, Palmer & Daugherty,
1998). Most researchers in early studies found out that attitudes towards technology varies
significantly between males and females, as males showed more interest and knowledge,
with the exception of Liao (1999). A majority of researchers who studied students‟
attitudes towards the use of ICT confirmed that males have a more positive attitude
towards ICT, and that they used it more often than females. Other researchers also found
out that females view technology as more difficult and less interesting in comparison to
males (Boser, Palmer & Daugherty, 1998).
Nevertheless, the difference in attitudes between the two genders towards technology is not
attributed to their biological nature, but to the social and cultural construction. The
differences in attitude can be attributed the person‟s specific status and the use of
computers or ICT in education, as those machines were essentially used in research and
administrative offices by white males (Linn, 1999). Differences can also be the result of
males‟ dominant culture in technological domains, as males use computer machines more
than females in the workplace (Hill, Loch, Straub and Elsheshai, 1998). Additionally,
differences can result from a direct effect of the technological environment inside the
house. A lot of males and females view their houses as more technological, and they assess
their parents‟ professions as more technological (Bame et al., 1993).
Sharp (2005) identified other possible reasons for the difference in attitude and capability
in ICT use:
Most computer games are characterised by violence and attract males.
Computer machines are connected with mathematics and sciences, which are
domains dominated by males.
Magazines and newspapers depict the man as using the computer more than the
woman.
When women are using the computer machine it would normally appear in the
working office role.
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And a lot of teachers encourage children to use computer machines at the same
time females are discouraged from doing so (Sharp, 2005: 405).
In more recent studies, it has appears that attitudes between the two genders towards
computer machines are no longer greatly different. Female participants in a group which
focused on a study carried out by „the American Association for the Education Foundation
of University Women‟ found that they enjoy using computer machines, but that they use it
in a different manner from males (Bain & Rice, 2006). Since gender difference has an
effect on attitudes, conceptions and the use of technology, it is important to understand the
differences between the two genders in this context.
Vekiri (2010) carried out an explorative study within the context of an intermediate
computer school in Greece. This study sought to examine the values and beliefs of both
genders in relation to computer machines and ICT, parents‟ conscious support, teachers‟
expectations, and conceptions of the nature of teaching ICT. Over 300 students participated
in the study, and answered a self-report questionnaire.
The analysis showed that the teacher‟s expectations were positively connected with
students‟ beliefs of ability, and that the conceptions of the educational activities were
creative and effective on a personal level, and greatly influenced students‟ interest in the
field of IT. Also, parents‟ support was connected with students‟ values and beliefs on the
efficiency of ICT. Contrary to earlier studies, the findings of this study did not support the
claim that males excel females in relation to the personal values and beliefs connected with
ICT. Moreover, the study pointed out that males‟ and females‟ beliefs are influenced
differently by parents, teachers and the school teaching of informatics.
2.8 Information, ICT and Motivation
2.8.1 What is Motivation?
A single definition for the meaning of motivation is difficult to obtain. Nevertheless, there
is common divergence around a definition that implies that motivation is some force that
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pushes individuals to make efforts to secure their needs. The term „motivation‟ from the
Latin word „movere‟ which means „to move‟. Motivations cannot be viewed but can be
known through manner. Motivation is an internal affair which excites us to do some work.
It pushes us in specific directions and keeps us engaged in specific activities (Elliot, 2000).
Motivation can be divided into internal and external, according to its source. Internal
motivation involves internal and personal factors, such as needs, interests, curiosity and
pleasure (Woolfolk, 2001). External motivation implies students‟ participation in an
activity to obtain an incentive or avoid punishment, like marks, stickers or the teacher‟s
approval. A student is not considered really interested in activity itself; rather in what he or
she will benefit from this activity (Woolfolk, 2001).
2.8.2 ICT and Student Motivation
Cox (1997) studied elementary and secondary school students‟ use of technology and their
attitudes towards ICT. The study was grounded in an analysis of the literature relating to
motivation, as it indicates that the regular use of ICT for various topics can have a
stimulating and beneficial effect on students‟ learning. Students‟ responses showed their
increasing commitment to the learning task, reinforcing enjoyment, benefit and feeling of
achievement in learning when using ICT, and emphasising their self-esteem. Over 75% of
secondary school students stated the response „I agree‟ or „I strongly agree‟ to the statement
that the use of computers made the school subjects more exciting. Also, over 50% of the
students showed agreement that the use of ICT helped them understand their topics in a
better manner (Cox, 1997).
Bullock (2001) carried out a case study about the effect of ICT use on the student‟s
motivation and achievement in English. Results showed a great improvement in the
motivation of the great majority of students. In particular, students were more enthusiastic
to start the tasks, and this zeal continued over the period of the task. The questionnaires
responses for 88% of the class showed that the use of a various collection of ICT during
this year made English lessons more exciting and interesting than was expected. Also,
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86% of the group pointed out that ICT helped them to produce a good job that enabled
them to explore ideas and work creatively (Bullock, 2001).
In the UK, the UK Impact Project studied the effect of ICT on students‟ learning in
elementary and secondary schools which included 2300 enrolled students in 19 local
educational areas (LEAs). The project concluded that students‟ commitment to work
increased after the use of ICT (Watson, 1993). This study suggested the existence of
students of „advanced information technology‟ in some study subjects and age ranges and
in specific circumstances (depending on access to computer machines and suitable
software and a syllabus plan that integrates its use in the lessons) can achieve gains of 5%
in general examinations results. Robertson et al. (1995) also carried out a similar study
about the situations related the computer on students who joined an English secondary
school. It was assessed by a questionnaire items, such as „I would like to work with the
computer machine‟. The results showed that students have a positive attitude towards
learning in the presence of computers.
BECTA published a summary of research results titled „Information Technology Works
Successfully‟ in 1994. Pachler (1999) described 27 confirmations included in the report,
which can be summarised as follows:
Students who did not enjoy learning can be encouraged through the use of ICT, which
possesses the flexibility required to meet the individual needs and abilities for every single
student. ICT presents information in new ways that help students to understand. Even
difficult ideas become easier to understand when the information technology makes it more
visible. Simulation offered by ICT encourages analytic and broader thinking as well as
learning activation and stimulation, and it is considered successful specially in attracting
the attention of students who have manner and emotional difficulties. Through the use of
ICT teachers can have a look at the way they teach and the ways through which students
learn. Facilitating teachers‟ easy arrival to ICT sources encourages and improves the use
of ICT in syllabi (Pachler, 1999: 5).
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Denning‟s (1997) research involved nine secondary schools located in the West of Sussex,
Sheffield and Birmingham for the study of what and how ICT activities can stimulate
students through positive experiences that involve the use of technology in a group of
activities. 80% of the teachers who used ICT regularly found that students were stimulated
in a good manner. Drawing on this research, we find that ICT had a positive effect on the
student‟s motivation, and the use of ICT boosted students‟ motivation to learn and led to a
better performance for learning outcome. Learning inside the ICT environment entails
more excitement and amusement regarding lessons, more enjoyment of the learning
experience, gaining control on their own learning process, more self-confidence and more
self-esteem.
Information technology is considered in a study monitored by the International Association
for Educational Achievement (IEA). The research focuses on six schools in England: three
elementary and three secondary, during the academic year 2000/ 2001. The research found
a number of positive effects on students who participated including improved motivation,
increasing self-confidence and self-esteem, reinforcing social skills, improving cooperative
and collective work skills, and better achievement (Harris & Kington, 2002).
The climate project, undertaken by 48 lower secondary school students was evaluated with
the use of a portable computer to collect temperatures and representing them graphically in
a geographical research centre. Motivation and confidence in the use of technology
increased over three weeks and (Hennessy, 2000). This research studied the extent of the
effect of different uses of ICT during lessons on students‟ motivation to continue work at
other times of the school day and out of school. The teachers who allowed more
participation in the computer activities offered more use of the computer outside the
classroom. The increasing use of computers by students at their leisure times was not
connected with the socio - economic status and ability (Becker, 2000).
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3 Kuwait
3.1 The State of Kuwait – General Background
Kuwait is a small oil-rich constitutional monarchy on the coast of the Persian Gulf,
enclosed by Saudi Arabia on the south and Iraq on the north. Kuwait has the oldest
directly elected parliament of the Persian Gulf Arab countries. The chief of state is the
Emir, a hereditary title. The Emir appoints the Prime Minister, who until recently was also
the Crown Prince. A council of ministers aids the Prime Minister in his task as head of
government. As of the end of 2005, Kuwait had a total population of 2.9 million people,
which included 1.9 million non-nationals: Kuwaiti citizens are in the minority of Kuwait's
total population. About 57% of the Kuwaiti population is Arab (Al-Dewan & Al-Ameeri,
2009).
Figure 3.1: Geographical location of Kuwait
63
3.2 Kuwaiti Education System
In the early 1900s, education consisted largely of Quranic schools, offering basic literacy
training in the context of religious instruction. This system provided some formal
schooling for nearly all boys and most girls. Wealthy families often sent their sons abroad
for further education. In the first decades of the twentieth century, merchants anxious
about more extensive training for their sons opened a few private schools, notably the
Mubarakiyyah School in 1911 and the Ahmadiyyah School in 1921. In the 1930s,
merchants established the Education Council and expanded the system to include four new
primary schools, including one for girls. The education system in Kuwait developed
quickly after 1936, and the quality of education improved significantly. Three new schools
were opened by the Council in 1937-1938, two for boys and one for girls.
Secondary education started in 1937 with the opening of one class for boys, and a second
class was opened the following year in 1938. However, it took the Council until
September 1953 to open its first distinct secondary school, which was called Al-shuwaikh
High School. The development of secondary education for girls was similar to that for
boys. One year after establishing the first secondary school for boys, the first secondary
school for girls, named Al-Murgab, was opened, and since then, the Kuwait government
has kept on developing the education system continuously.
Secondary education is not compulsory. It consists of a three-year cycle, comprising of
grades nine through to twelve. For grades nine and ten, students follow a common
curriculum. For grades eleven and twelve, they may choose Science or Arts
specialisations. Religious and Special Education secondary specialisations are also
offered. The Ministry of Education supervises all aspects of secondary education, both
public and private, for general and Islamic education. The education system of Kuwait is
shown in Figure 3.2, where the decision making hierarchy is outlined.
3.3 Private and Public Schools
Private education started in the country to meet the needs of teaching foreign children that
now live in the country. Al-Jafria Al-Ahlia School is considered the first private school in
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Kuwait, as it was established in 1938, and it is now known as the „National Private
School‟. The English private school is considered the first foreign private school that was
established in Kuwait, as it was founded in 1953 and is still operating at present. In 1959
they announced the first law for private schools, and in 1967 the Ministry of Education
announced the private education system in Kuwait. The following establishments
represent private education schools: Arabic private schools, foreign private schools,
British, American, Indian, and cultural institutes (specialised in the field of training and
professional and vocational studies) and other schools of other nationalities.
The first law to regulate the private education sector was issued in 1959. In 1967 a
ministerial decision was issued, which involved the private education system and its
adaptations, and in 1998 decision number 17764 was issued, which related to general
administration specialisations for private education and the units on which it was based.
A lot of Arab citizens immigrated to Kuwait because of the circumstances which faced the
Gulf region. Great numbers of individuals from different nationalities flew in to the
country to work in different domains in 1967. As a result, the numbers of private schools
increased, especially those based on English curricula, thanks to the awareness regarding
offering educational care in the country. The number of private schools after the project
completion in 1970/1971 reached 63 Arabic and foreign schools. The number of students
in the same year was 28,266, and there was an increase in the numbers of schools and
curricula. The numbers of male and female students have steadily increased to this point.
Decision No. 1443 relating to the conditions and systems of establishing bilingual schools
in the private education sector was issued on the 1st of May, 2001. This system shows a
special interest in Arabic and English and the Arab and Islamic education materials that
follow the plans of the Ministry of Education in Kuwait, as is the case with social sciences
and mathematics. This system is characterised by high flexibility in teaching methods, the
presentation of concepts and information, and making the lesson the pivot of the education
process. The total number of schools that follow bilingual curricula is 10 schools
(Ministry of Education: Private Education Department, 2006).
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Kuwait had taken an interest in higher education for a long period of time, since it sent the
first group of male students to Baghdad to study in Al-Adhamia Faculty in 1924 in order to
prepare them to teach in Kuwait schools. The first group of female students were sent to
Cairo in 1956 to enable them to study higher education. Kuwait University (KU) was
opened in 1966, and the Public Association of Applied Education and Training (PAAET)
was established in 1982. Through these two higher education establishments, technical
colleges and various establishments offered different higher education certificates and
private technical studies in many educational fields. Study grants are offered to graduates
of Kuwait University and Institutes of PAAET to pursue their higher studies in the USA
and the UK, among other countries all over the world. The Ministry of Education has
attempted, since its inception, to prepare Kuwaiti citizens to become a part of the education
system in Kuwaiti schools, and it has succeeded in educating a majority of Kuwaiti people.
The education system in Kuwait can be divided into three groups, directed by the Ministry
of Education:
Public education
Private education
Quality education
Public schools are supervised by the Ministry of Education with regards to curricula and
school design. According to 2005/ 2006 statistics, the numbers of schools in Kuwait were
as follows:
167 Kindergartens
212 elementary schools
164 intermediate schools
116 secondary schools
Public schools in Kuwait are restricted to Kuwaiti and some non-Kuwaiti citizens, children
of teachers who work for the Ministry of Education, and children of immigrants who
obtained citizenship before 1960. The rest of non-Kuwaiti children are taught in private
schools (Ministry of Education, 2006).
66
In 1959 the first organisation for private schools was announced. The Ministry of
Education announced the first private education system in Kuwait in 1967. The following
establishments represent private education schools: Arabic private schools, foreign private
schools, British, American and Indian schools and cultural institutes (specialised in the
field of training and professional and vocational studies) and other schools of other
nationalities (Ministry of Education: Private Education Department, 2006).
Arabic private schools are supported by the government and are run according to the
requirements of Kuwaiti education system. Foreign schools follow their original curricula
in the homeland, and these schools are supervised by the Private Education Department
(PED) which relates to the Ministry of Education. The Private Education Department
manages private schools through managing employees and schools in general. The
Ministry of Education forced these schools to do courses in Arabic and integrate Kuwaiti
cultural studies in their curricula, such as Islamic education, history and geography
(Kuwaiti Media Office, 2006).
Before the Iraqi invasion in 1990, only 15 non-Arabic schools were available in Kuwait.
The number of Western residents in Kuwait increased after liberation. As a result, the
Western Education increased by over three times in the country. In 2005 the number of
private schools in Kuwait reached 158 schools (Ministry of Education: Private Education
Department, 2006). It is taken for granted that there is a great tendency among Kuwaitis to
join Western education for the following reasons (Ministry of Education: Private
Education Department, 2006):
1. The unsatisfactory level of public education in Kuwait.
2. Acknowledgement of the importance of teaching English in paving the way for
continuing education abroad and for life in general.
3. Advanced curricula for non-Arabic schools in Kuwait.
Despite the relative rise of fees for these schools, the number of schools of American and
British curricula is on the increase. The number of Kuwaiti students who joined private
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schools rose from 9% in 2001 to 10.5% in 2002 (Ministry of Education: Private Education
Department, 2006). Quality education in Kuwait can be divided into 4 categories:
Religious education
Private education
Teaching adults
Vocational education
The Ministry of Education issued a document for education general goals in 1967. The
general goal for learning in Kuwait is as follows: Helping learners to grow
comprehensively in all spiritual, mental, social, psychological kinds of growth as much as
they can, enabling them to achieve self-confidence, and constructive participation in
achieving progress for Kuwaiti society, the Arab World, the Islamic World and humanity
in general. The Ministry of Education realised the huge responsibility placed on its
shoulder for interaction with different future challenges relating to education in Kuwait.
The Ministry of Education realised that it has to develop the educational philosophy and
manage the components of the education system in Kuwait. Accordingly, the Ministry of
Education decided to direct all its human and financial resources to achieve five main
educational goals.
1. Practical interpretation for ambition which aims at building the Kuwaiti citizen
according to the scientific method of reasoning and the development of learners‟
abilities in learning different stages to understand scientific types and their practical
applications in the different domains required in society.
2. Making available the sources of international information to Kuwaiti learners in all
fields of scientific and technological revolution, and at the same time, stimulating
the interest in Arab and Islamic heritage, and employing them in spiritual
excellence, basic values and love of the homeland.
3. The constant support and development of schools, establishments and adult-
teaching centers to go along with scientific and technological advancement and
setting systems and policies to deal with distinguished learners, teachers and
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administrators to develop the features of invention, vocational efficiency and sense
of belonging to educational institutions.
4. Equality in the distribution of services and educational activities in all parts of the
country and continuing to work to deliver information and knowledge to the places
of the Kuwaiti citizens‟ residence.
5. Making more effort to prepare and develop national workforces in the educational
domains and reducing reliance on foreign workforces in these domains, provided
this does not affect the quality of the teaching process.
The main goals of secondary education in Kuwait include the following:
1. Highlighting loyalty in the Arab, Islamic and Kuwaiti nation, as well as ambition to
achieve the highest social status, and selecting a powerful healthy constitution
suitable for all students‟ ages.
2. Looking after students in accordance with Kuwaiti culture, taking interest in their
emotional and intellectual problems, and helping them to go forward towards a
successful future.
3. Developing students‟ abilities socially, physically, psychologically and
educationally.
4. Preparing students to pursue their studies in all levels of higher education and
preparing them for work in different domains of social activities.
5. Encouraging students to read and have ambition, to broaden their knowledge and
productive work, and helping them to use their leisure time in the activities that
develop their personalities.
6. Highlighting the sense of family solidarity in order to construct a solid society
7. Developing students‟ abilities in the field of scientific thinking and encouraging
their spirit of research, analytical powers, the use of information sources, and
practising academic activities.
(Ministry of Education, 2005)
The Organisation of the Ministry of Education
The Ministry of Education in Kuwait runs all types of schools through two main
administrative departments: The Public Education Department and the Private and Quality
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Education Department, with the support of a number of auxiliary departments. The Public
Education Department manages public schools in six educational areas distributed
geographically in all parts of Kuwait.
1. Capital education area
2. Holi education area
3. Farwanieh education area
4. Mubarak Al-Kabir education area
5. Al-Jahraa education area
6. Al-Ahmadi education area
All public schools in Kuwait are under the supervision and administration of one of these
education areas, while all private and quality schools are supervised by the Quality and
Private Education Department.
Figure 3.2: Structure of the Ministry of Education
Source: adapted from Report of Development in the Ministry of Education, 2011
Ministry of
Education
Private
Education
Government
Education
Public Education Qualitative Education Adult Education
Illiteracy abolition
Religious Education Special Education
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The pre-university regular education stages consist of three main stages, which are the
primary stage, the intermediate stage and the secondary stage (Table 3.1).
Table 3.1: Schools Stages in Kuwait
Source: Adapted from Report of Development in the Ministry of Education, 2011
In the academic year 2010/2011, there were 305,080 students registered at all pre-
university stages, 35,624 teachers and 668 schools. See Tables 3.2 and 3.3 which provide
more details of the distribution of students (gender and district), teachers (gender and
stage).
Table 3.2: Secondary Schools and Students in Educational Districts – 2010/11
District
Asima
Hawally
Farwaniya
Mubarak
Ahmadi
Jahra
Total
Boys 6411 5256 4458 3758 4864 3254 28001
Schools 13 10 10 7 13 7 60
Girls 6598 5058 6521 5448 6704 5169 35498
Schools 11 9 13 7 16 9 65
Source: Ministry of Education, Statistics, 2010/2011
Primary Intermediate General Secondary
Length of program in years 6 3 3
Age level from 6 to 12 years old 13 to 15years old 16 to 18 years old
Certificate/Diploma awarded None Intermediate
School Certificate
General Secondary
School Certificate
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The number of public secondary schools in Kuwait is 125. This number is split into 60
boy‟s schools that provide secondary education for 28,001 boys and 65 girls‟ schools,
which serve 35,498 girls studying at the secondary stage. See Table 3.3.
3.3.1 Historical Background of using ICT in teaching within Kuwait
In 1976, the Ministry of Education in Kuwait announced the generic objectives of
education in Kuwait (Ministry of Education, 2009). The main aim of education in Kuwait
was based on assessing learners at all levels in terms of spiritual, mental, social, and
psychological and physical education. In 1983, the Ministry of Education announced the
main strategic objectives and plans for pre-university education (Ministry of Education,
2009). One of the main objectives, the Ministry stated, was to update the educational
system in Kuwait with new educational technologies, which suit the needs and priorities of
Kuwaiti society. One of the main priorities was to develop educational facilities in pre-
Table 3.3: Distribution of teachers in Kuwaiti schools in terms of nationality, gender and
educational stage
Kuwaiti Non-Kuwaiti Total
Male Female Total Male Female Total Male Female Total
Nursery - 3,717 3,717 1 190 191 1 3,907 3,908
Primary 1,125 9,060 10,185 567 4,075 4,642 1,692 13,135 14,827
Intermediate 1,491 3,922 5,413 2,659 1,153 3,812 4,150 5,075 9,225
Secondary
(ART) 320 1,395 1,715 1,243 817 2,060 1,563 2,212 3,775
Secondary
(Scientific ) 541 1,423 1,964 1,347 578 1,925 1,888 2,001 3,889
Total 3,477 19,517 22,994 5,817 6,813 12,630 9,294 26,330 35,624
Source: Ministry of Education, Statistics, 2010/2011
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university education, particularly educational technologies and facilities. This strategy was
also concerned with the curriculum dimension, in terms of providing new subjects related
to technology, computers and ICT. In that year, the Ministry of Education in Kuwait
introduced the first initiatives to study the feasibility of using computers in secondary
schools. This was mainly motivated by the desire to develop and enhance the supportive
systems in learning represented mainly by learning technologies and tools (Ministry of
Education, 2009). Four years later, the strategy became real when secondary schools in
Kuwait started to teach An Introduction to Computing. However, from the first initiatives
in 1983 until 1996, no serious steps supported by resources took place.
In 1996, the first nationally funded project to teach information technology in schools was
started in four girls‟ secondary schools. This project formed the first step towards
implementing the government educational strategy in filling the gap between the old
education system, and the emergent needs of teaching ICT in schools. The total estimated
cost of the project was 24 million dollars. However, in this project, Kuwait made the first
initiative compared with other Arab Gulf Regions such as Qatar which has just recently
made some steps towards integrating ICT into the learning process. In 2005, the Ministry
of Education in Kuwait announced a general strategic plan for education in Kuwait for the
next twenty years, starting in 2005, and ending in 2025. Consistent with the trends of
educational visions from Kuwaiti leaders, one of the main issues this strategic plan referred
to is the technological challenge and gap between developing countries and the advanced
world. The strategy also referred to the necessity of filling the numerical gap
(technological gap) between the Kuwaiti educational system and the requirements of using
technology in everyday life (Ministry of Education, 2009).
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4 Research Methodology
4.1 Introduction
The presence of ICT in the interactive educational environment helps develop thinking
skills and can make classrooms an environment for educational growth. This statement
was the catalyst for this study, the purpose of which is to examine the scale and nature of
ICT use in secondary classrooms in Kuwait. This study will be useful for all researchers
interested in the use of ICT in classrooms, teachers who are in the process of developing
ICT use in schools, and strategists and policy makers within the Ministry of Education in
Kuwait.
This study will support educational administrators and policy makers in choosing
appropriate methods of managing ICT change in the educational system in Kuwait. It is
the first study in Kuwait that takes into consideration different aspects of the application of
ICT in the educational system. This study will consider five main research questions:
1. How confident are teachers in using ICT in the teaching and learning process?
2. Does this confidence and application vary between subjects?
3. How do students use ICT in the classroom and at home?
4. Are there any differences between students’ teaching and learning in public schools
and private schools in terms of their use of ICT in the classroom?
5. Are there any differences between male and female students’ teaching and learning
in terms of their use of ICT in the classroom?
To date the research has examined the relevant literature and background appropriate to the
study, aiming to contextualise the research to be undertaken. In this chapter the research
focuses on the methodological approach and philosophy that are the basis for the research
itself. Here, the researcher considers the mixed methods approach used in this study. Also,
in this chapter, the researcher will discuss the study‟s objectives, the target population and
sample, and the reasons for selection of specific data collection tools. For this purpose the
researcher has developed two questionnaires and interview which are explored here;
discussing the reliability and validity and also the analysis techniques associated with both
methods.
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4.2 Research Design
A mixture of research methods is used in this study, including both quantitative and
qualitative approaches. As a general rule in such research, both quantitative and qualitative
approaches should be taken into consideration when appropriate. As Creswell and Plano
Clark (2007:5) state:
“Mixed methods research is a research design with philosophical assumptions as well as
methods of inquiry. As a methodology, involves philosophical assumptions that guide the
direction of the collection and analysis of data and the mixture of qualitative and
quantitative approaches in many phases in the research process. As a method, it focuses on
collecting, analysing, and mixing both quantitative and qualitative data in a single study or
series of studies. Its central premise is that the use of quantitative and qualitative in
approaches in combination provides a better understanding of research problems than
either approach alone.”
A mixed research methodology is employed in this study, because it balances the strengths
and weaknesses of both quantitative and qualitative research (Creswell & Plano Clark
2007). There are many advantages to using a mixed method approach for this particular
research focus, which is the effectiveness of ICT teaching method in secondary classrooms.
This mixed method approach provides the best opportunities for answering the important
research questions of this study, the answers of which rely upon a variety of forms of data.
The quantitative section, which includes questionnaire, addresses the research question
related to how effective ICT is related to teaching method in the classroom. The
qualitative section includes interviews.
There are many important research methods employed by social researchers to secure the
data needed to answer their research questions. All have their own strengths and
weaknesses and are more or less, suited to different projects. Two of the most commonly
employed data collection methods are questionnaires and interviews, each of these provide
an alternative tool for the collection of empirical data and allow the researcher to ascertain:
75
A clearer picture of the information.
An accurate measurement of the data.
Evidence that supports the subject matter.
(Denscombe, 2008:133)
The researcher has employed both of these techniques in this study, in order to provide a
complete and clear picture of the area of research. Furthermore, this is critical to answer
the aforementioned research questions.
Advantages of Quantitative Methods Disadvantages of Quantitative Methods
Confidence: Statistical testing can achieve
greater credibility from results.
Measurement: The analysis of quantitative
data provides a basis to answer research
questions.
Analysis: Quantitative data can be
analysed quickly, largely irrespective of
scale.
Presentation: Tables and charts provide an
effective way of communicating results.
Quality of data: quantitative data is bound
by the quality of the questions being asked
and the methods used to ask them.
Technique: There a danger of researchers
being obsessed with technique as opposed to
the aims of the research.
Data overload: Large datasets, whilst
improving confidence, can burden the
researcher.
False promise. Decisions made during the
analysis or interpretation of quantitative
research can have huge impacts on the
outcomes or findings.
(Denscombe, 2010:283)
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Adopting the mixed methods approach allows us to effectively triangulate the data.
Triangulation is the process whereby two methods are used to check the results of a piece
of research, Cohen and Manion (2000). The notion is that increasing the number of
methods (and achieving the same results from those methods) means we can be more
confident of the results we achieve (Altrichter et al., 2008).
Gray (2009) asserts that by blending a number of qualitative and quantitative methods, an
overall strength of research can be achieved. Each method compensates for the
weaknesses of the other two, but rather than becoming one all-encompassing super method
the dissimilar methods stay dependent, and work side by side. Triangulation, which
combines quantitative and qualitative methods, can focus on a single case in which the
same people finish a questionnaire and are also interviewed. The responses from both data
sets are combined and compared.
Herein the quantitative element of the research is the questionnaires associated with the
teachers and students in Kuwaiti schools, the qualitative element will be focused upon
interviews with staff in the Ministry of Education.
The data collected in two main ways: firstly, by distributing questionnaires to teachers
from six districts and secondly via interviews with teachers in the Ministry of Education.
The researcher selected the schools based on geographical distribution. The state of
Kuwait is divided into six districts and as such the researcher selected three secondary
schools from each district. One of the three schools is be private, and the second school is
all-female public school, while the third school is all-male public school. In total 18
schools used in this research project. The researcher will distribute the questionnaire to
331teachers over the 18 schools, and the researcher will meet 16 participants, fourteen of
them teachers and two of them policy makers in the Ministry of Education. The researcher
sent a letter to the Ministry of Education in Kuwait, asking for permission to enter the
schools, to distribute the questionnaires and conduct the interviews.
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4.3 Use of Questionnaires
4.3.1 Rationale for Questionnaire Use
Questionnaires were selected as the major evidence source for the research in this study.
As already mentioned, questionnaires were provided to both teachers and students from the
selected school. In this section, we will explain the study instruments i.e. questionnaire,
likewise validity and reliability of study tools and method of pilot study will be discussed.
Kumar (2005:33), states that a questionnaire is a “written list of questions, the answers to
which are record by respondents. In questionnaires respondents read the questions,
interpret what is expected and then write down the answers”.
There are many advantages of questionnaires: Gray (2009:338) notes that a number of
these are:
They are low cost in term of both time and money.
The inflow of data is quick and from many people
Respondents can complete the questionnaire at a time and place that suits them.
Data analysis of closed questions is relatively simple, and questions can be coded
quickly.
Kumar (2005) notes the disadvantages of a questionnaire:
Application is limited. A major disadvantage is that only those able to read or write
can complete one.
Response rate is low. Questionnaires are often not sent back or completed by
respondents.
There is a self-selecting bias. I.e. not all those in receipt of the questionnaire will
return it.
A lack of opportunity to clarify issues may mean that the questionnaire is
misinterpreted.
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The response to a question may influenced by the response to other questions. As
respondents can read all the questions before question may be affected by their
knowledge of other questions.
It is possible to consult other people – i.e. in mailed questionnaires respondents
may engage with other people ahead of responding.
A response can often not be supplemented with other information.
In order to keep this study balanced and unbiased it is important to recognise the
disadvantages of questionnaires. Kumar (2005) believes that questionnaires are notorious
for their low response rates that people fail to return them, which could leave the
researcher with limited data to analyse. He also states that another issue could be if the
respondents do not understand a question, there is no opportunity for them to have this
clarified, as they are not working face-to-face with the researcher, and finally one person‟s
response to a question may be directly influenced by their response to another question in
the questionnaire, thus not providing a true reflection of the respondent‟s views.
In terms of the validity of questionnaires, Gray (2009) states that this can be affected by the
wording of the question it contains, and that even if individual questions are valid, poor
sequencing of questions or a confusing organisation or design of the questionnaire can all
threaten its validity, and thus the validity of the entire study. Reliability is an equally
important an issue to consider: reliability is linked to correct and secure results. If a study
is highly reliable the same results should be obtained anytime the study is carried out,
assuming what is being measured has not changed.
The choice of questionnaires in this instance is primarily to answer the first three questions
associated with the overall research aim, namely:
1. How confident are teachers in using ICT in the teaching and learning process?
2. Does this confidence and application vary between subjects?
3. How do students use ICT in the classroom and at home?
Additionally, the inclusion of independent variables on gender and the type of school
(public or private) allows the research to break down that analysis, and attempt to answer
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the 5th
research questions, again around students‟ perception of ICT in terms of both gender
and sector. Given the large volume of data considered in evaluating these questions – from
both students and teachers, it is believed that questionnaires offer the best methodology,
allowing the researcher to analyse these large datasets quickly, in the form of closed
questions.
4.3.2 Questionnaire Design
In order to design a valid questionnaire, a researcher must consider in detail the
information he or she is seeking to draw out of the data, in conjunction with the research
questions (Anderson, 2004). Neuman (2003) suggests that a good survey question will
produce effective measures from which the researcher can aim to answer the research
question(s). The current questionnaire was designed after I went through many
questionnaires of studies and research into educational technology. Having read these
studies, I found that they also dealt with effectiveness of educational technology in
teaching methods at secondary schools.
Since the study focuses on on the scale and nature of ICT use, I considered it important to
distribute questionnaires to both students and teachers in each school, which would further
help me to analyse the results more clearly. The questionnaires were distributed to teachers
of core subjects, namely, Arabic, Mathematics, Science and English.
Components of the teacher’s questionnaire
To answer the first research question, „How confident are teachers in using ICT in the
teaching and learning process?‟, the teachers answer a section on the questionnaire which
considers the extent that they use ICT applications and associated activities for teaching, in
school and at home?
Section one (see Appendix 2) addresses the teachers‟ confidence in ICT use, designed
according to a Likert scale. This part consists of 20 items, and responses range from „Very
Unconfident‟ to „Very Confident‟. Section Two consists 15 items about teachers ICT Use
in Teaching Practice and again is designed according to a Likert scale. Section three
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consists of 13 items about teacher‟s opinion about using ICT in the teaching process, to
know the advantages and disadvantages of using ICT in their teaching methods. The
second part in Section three is concerned with the impact of ICT use on the teacher, and is
again designed according to a Likert scale.
Components of the student’s questionnaire
To answer the second research question, „How do students use ICT in the classroom and at
home?‟ students were invited to answer a range of questions. In Section one (see Appendix
1) respondents were invited to comment on their ICT use at school , designed according to
a Likert scale. This part consists of 20 items, and requests respondents to describe the
frequency of use. Section Two consists of 20 items concerned with ICT use at home,
designed according to a Likert scale. Section three consists of 13 items about students‟
opinion of using the computer in the teaching/learning process, again designed according
to a Likert scale. Section Four consists of 21 items about students ICT Usage Level,
designed according to a Likert scale.
4.3.3 Pilot Study
The purpose of a pilot is to enhance the reliability, validity and the practical application of
the questionnaire (Cohen, 2008). Walliman (2008) suggests that the best method of pilot is
to test the questionnaire with persons who have relative expertise in the field, to anticipate
any issues or „sources of confusion‟. The design of the questionnaire and completion of its
questions being completed, the pilot study was then conducted using two methods before
data collection. The first method was that it was presented to a group of arbitrators and
faculty members in the Department of Educational Technology at the Kuwait University
and Public Authority for Applied Education and Training in Kuwait. Arbitrators were
requested d to state the objectives of the study, and the researcher has asked arbitrators to
express their views concerning the following:
• Clarity of phrasing and integrity of its formulation.
• Appropriate phrase axis to which it belongs.
• Proposals for amendment, addition or deletion.
The scrutiny of the arbitrators gave added value to the questionnaire before finalisation; the
Instrument was amended following their feedback.
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The second method of piloting the teacher‟s questionnaire was that it was distributed as a
pilot questionnaire to twenty teachers in secondary schools, (five of them were Arabic
teachers, and five of them English teachers, five were Maths teachers, and five of them
Science teachers). The researcher also distributed pilot student‟s questionnaire to one
classroom in the secondary school. The teachers‟ and students‟ questionnaire was modified
according to the notes received.
Implementation of the Questionnaires
After completion of the preparation of the questionnaire in its final form and approval from
the supervisor, the following steps were implemented:
1. A letter was requested from the supervisor in order to start to study application.
2. The supervisor‟s report was submitted to the Ministry of Education in order to
allow the researcher to start the study.
3. The researcher distributed questionnaires to teachers and students in schools and
collecting the questionnaires from them after.
4. Questionnaires were categorised and numbered, and the researcher entered the
study data into a computer using SPSS packages.
5. The data was analysed and the results presented.
4.3.4 Translation
The translation process of the questionnaire is very important because respondents‟
language is Arabic and it was necessary for the researcher to be precise in the translation of
the questionnaire, therefore, the researcher came to specialised office of academic
translation and the translation process has gone through the stages to make sure that
translation is accurate and guidance stages:
1. Sending questionnaire to Translation Company specialised in Academy translation.
2. The researcher discussed with translators at appropriate junctures until agreement
was reached on the original meaning of the questionnaire.
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4.3.5 Participation in Questionnaires
Sample Distributed
Questionnaires
Returned
Questionnaires
Returned
Questionnaires
Teachers 360 331 91%
Sample Distributed
Questionnaires
Returned
Questionnaires
Returned
Questionnaires
Students 360 308 85%
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Table 4.1: Selection of Schools and Students for Questionnaires
School School
Type
District Gender Teachers numbers Students Numbers
Abdul Alotabi Public The Capital Educational Area M 5 5 4 4 6 6 5
Sharefa Alowadi Public The Capital Educational Area F 6 5 4 4 6 5 6
Alaklas Private The Capital Educational Area M 4 5 6 4 5 6 6
Fahd Aldouare Public Hawally Educational Area M 5 4 6 4 6 6 5
Kaldai Alaswd Public Hawally Educational Area F 4 6 5 4 6 6 5
Aljeal Private Hawally Educational Area F 6 5 4 4 5 6 6
Iben Aamed Public Farwaniya Educational Area M 4 4 5 6 5 6 6
Alnhadai Public Farwaniya Educational Area F 6 5 4 4 6 5 6
Altamez Private Farwaniya Educational Area M 6 4 5 6 5 5 7
84
Alamam Malek Public Mubarak Al Kabeer Educational Area M 6 4 6 5 5 6 6
Aladan Public Mubarak Al Kabeer Educational Area F 4 5 4 5 6 6 7
Almarfah Private Mubarak Al Kabeer Educational Area M 5 5 4 4 6 6 5
Balat Alshadi Public Ahmadi Educational Area M 4 4 5 5 5 6 6
Latefi Alfares Public Ahmadi Educational Area F 4 4 5 5 6 6 5
Alfhheal Private Ahmadi Educational Area F 5 5 4 4 6 5 6
Sbah Alnaser Public Jahra Educational Area M 5 5 4 4 6 5 6
Zeenab Mohamed public Jahra Educational Area F 4 5 4 5 6 6 5
Aljahra private Jahra Educational Area F 5 4 5 4 5 6 6
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Table 4.2: Overview of Schools used in Questionnaires and ICT Application
School School Type Gender Type of ICT use
Abdul Alotabi Public M Educational software provided by the Ministry in
mathematics - computer, PowerPoint and Excel sheet.
Sharefa Alowadi Public F Use Power Point, Microsoft program and Google search
online in the classroom
Alaklas Private M Computer and data show Power Point Excel Program
Fahd Aldouare Public M Software which Ministry of Education. Provides scientific
research sites for biology and chemistry subjects
Kaldai Alaswd Public F Data Show, Flash, educational programs
Aljeal Private F Power point- Projector
Iben Aamed Public M Smart electronic blackboard, computer, and educational
software.
Alnhadai Public F Data Show, Power Point, and personnel laptop and education
software provided by the Ministry of Education.
Altamez Private M Projector, power point and personal laptop
Alamam Malek Public M Electronic dictionary, electronic language. Laboratory and
laptops.
Aladan Public F Data Show, Laptop and Projector
Almarfah Private M Power Point, Microsoft program and Google search online
Balat Alshadi Public M Educational software provided by the Ministry -Data Show
Latefi Alfares Public F Educational programs -smart electronic blackboard
Alfhheal Private F Power Point- Google Sketch Up
Sbah Alnaser Public M Projector, Power Point and personal laptop
Zeenab Mohamed Public F Google programs and some other educational software
specialised in mathematics
Aljahra Private F Projector- Data Show
86
4.4 Interview Techniques
4.4.1 Rationale for Interview Use
The second data collection method employed in this study is interviews. An interview is
essentially a conversation between two people, where one is the researcher and the other is
the respondent Gray (2009: 368). Gray (2009) believes that when considering the validity
of interviews, they should assess what they were planned to assess and nothing further. In
the case of structured and semi-structured interviews; the matter of validity can be directly
addressed by attempting to guarantee that the question‟s content directly concentrates on
the research targets. Reliability must be considered here again and it is of the utmost
importance that an instrument consistently measures what it set out to measure, thus
making it imperative that interviews be standardised, and the exact same questions asked to
every candidate in the same order.
The interviews aim to focus on the answer of first question and third question of the study
and they are:
How confident are teachers in using ICT in the teaching and learning process?
How do students use ICT in the classroom and at home?
The interviews aim to strengthen the validity of the findings from the questionnaire, as per
the strengths associated with triangulation (as described earlier in the research). In the
Interviews the teachers can speak freely and express in their own way and this helps them
to speak without any restrictions – this offers high credibility to the researcher at the time
of teacher‟s interview.
In the interview, the researcher can get into more details with the teachers and expands
discussion to them. As Arksey and Knight (1999) comment: Interviewing is a powerful
way of helping people to make explicit things that have hitherto been implicit-to articulate
their perceptions, feeling and under standings. (Arksey and Knight, 1999:32)
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The researcher can use his knowledge and experience in the field of education to ask new
questions during interview. The interview helps the researcher to monitor the non-verbal
behaviour of teachers and the interview gives opportunity to the researcher to clarify and
correct misunderstanding. Gray (2009) suggests that interviews allow a research the
opportunity to further probe any responses that might require clarification.
Here, it was believed that interviews with policy makers within schools/the Ministry of
Education would allow for greater probing of the answers provided, and would allow for
answers which are free from the confines of policy or „political‟ bias.
4.4.2 Interview Design
The interview was a semi-structured interview with open-ended questions to provide more
flexibility for both the researcher to ask extra questions and for the participant to offer
more information (Kvale & Brinkmann 2009). The interview was designed as it was open
questions to provide more flexibility to the researcher to ask additional questions when
needed and the method of design of questions helps teachers to provide more information
to the researcher.
The researcher asked teachers to talk about the general views on the use of technology in
education. The interview questions were derived from the study questions.
4.4.3 Implementation of the Interviews
The interview was conducted with teachers of basic subjects i.e. Arabic language,
Mathematics, Science and English language.
A timetable was set for interviewing. The researcher used a tape recorder to record the
interviews.
Gray (2009) advises: that the first task of the interviewer is to explain the purpose of the
interview ,who the information is for, how the information is going to be handled ,why the
information is being collected and how it will be used (Gray, 2009: 379). It is important to
attempt to put the participant at ease (Cohen, 2008).
88
The purpose of the interview was established and assurances of confidentiality of their
answers and that it will be used for educational research only, were given. Definition of
topics that will be addressed in the interview before the interview for two reasons:
1. To reduce anxiety among teachers before the start of the interview.
2. To give time to participants to think about the interview subjects so that they can
provide realistic answers.
4.4.4 Interview Procedure
The total number of interviews was 16. The researcher interviewed 14 teachers, four
Mathematics teachers, four Science teachers, four Arabic teachers and two English
teachers. The researcher also interviewed two policy makers at the Ministry of education.
All the interviews were recorded via type recorder, and transcribed in Arabic and translated
into the English. Each interview lasted between 35 and 45 minutes.
4.5 Validity and Reliability
In testing the questionnaire‟s validity, the researcher was aiming to find out whether she
could “draw meaningful and useful inferences from scores on the instrument” (Creswell
2003b, p.157), to know if the questions were clear and didn‟t any confusion to teachers
when they answering it. Testing a questionnaire‟s reliability assesses the internal
consistency of items, that is, “the degree to which the items that make up the scale are all
measuring the same underlying attribute” (Pallant 2001, p.6).
Cohen, Manion and Morison (2000, p.117) mentioned that “for a research instrument to be
reliable, it must demonstrate that if it were to be carried out on a similar group of
respondents in a similar context (however defined), then similar results would be found”.
The questionnaire‟s content and face validity were confirmed as follows:
The literature review: the study‟s questionnaire was an extended version of another
tested and used questionnaire from another study. This questionnaire was selected
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from amongst other questionnaires after search of the available literature and
confirmed to have a high level of internal validity.
It was presented to a group of arbitrators of faculty members in the Department of
Educational Technology at the Kuwait University and Public Authority for Applied
Education and Training in Kuwait and arbitrators were requested to state objectives
of the study and the researcher has asked arbitrators to express their views in the
following:
Clarity of the phrase and integrity of its formulation.
Appropriate phrase axis to which it belongs.
Proposals to amend, addition or deletion.
The final version of the questionnaire was produced and implemented in the study.
Reliability is a concept that shows how well the different items in a single dimension
combine to measure the same thing. Alpha (Cronbach) coefficients were calculated for the
components of each measurement scale to verify internal consistency. The internal
consistency estimates for every component of each dimension are reported in Table 4.3. A
value of 0.70 or above for coefficient alpha were considered good, while values between
0.60 and 0.70 were considered acceptable and adequate. The results in Table 1 indicate that
the Cronbach alpha levels of all dimensions exceeded the value of 0.60 suggested as
acceptable.
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Table 4.3: Internal Consistency Estimates of Dimensions for instrument
Dimensions Coefficient
Alpha
No. of
Items
Students'
questionnaire
Using ICT at School 0.903 20
Using ICT at Home 0.880 20
Using Computer in the teaching/learning process 0.680 13
Computer Usage Level 0.956 21
Teachers'
questionnaire
Computer Usage Level 0.952 20
ICT Usage in Teaching Practice 0.897 15
Using ICT in the teaching process 0.678 13
Effect of use computer in teaching 0.923 5
Obstacles to data collection:
The main obstacles of the data collection process the researcher is expecting to face are
listed below:
1. Bureaucracy will be one of the main difficulties the researcher might face, where he
may need to get different approvals before beginning the data collection process.
2. The criteria in choice of the sample of schools, students, teachers.
3. Distance from the cases, different sources of data, and different aspects of questions
will require the researcher to travel around the country many times to collect data,
associated with different types of risks.
4. Difficulties related to the translation process, where all interviews will need to be
translated into the English language.
5. As some interviewees are senior directors in the Ministry, the researcher may face
difficulties in arranging the date and the time of the interviews.
91
4.6 Epistemological Approach
Qualitative research is linked to a subjective and interpretivist approach, whereas
quantitative research originates from an objectivist or positivist stance, whereby reality
exists independent of the researcher‟s own interpretation. Gall, Borg, and Gall state that
(1996:28):
„Positivist research is grounded in the assumption that features of the social
environment constitute an independent reality and are relatively constant across
time and settings. Positivist researchers develop knowledge by collecting
numerical data on observable behaviours of samples and then subjecting these data
to numerical analysis….Quantitative research is virtually synonymous with
positivist research.‟
Relationship between researcher and subjects:
Quantitative researchers should aim to distance themselves from the subject they are
researching, whereas in qualitative methods there is direct contact between the researcher
and subject.
Research focus:
Qualitative researchers are focused on the interaction between people and the world,
whereas quantitative research focuses on establishing the truth, through the gathering of
facts.
Relationship to theory:
Quantitative research is typically deductive in nature, and tests rather than generates
theory. Conversely, qualitative research methods inductively build new theories.
The nature of data:
Quantitative studies explicitly generate numerical data, whilst in qualitative research,
whilst data can be derived from it, it typically generates words or pictures.) (Gray 2009).
92
4.7 Ethical Issues
Johnson (2008 p, 101) suggests that Ethics are „principles and guidelines that help us
uphold the things we value‟. For researchers, ethics is an important consideration and the
researcher received a permission letter from the Ministry of Education to enter the schools
and distribute questionnaires to students as well as teachers in addition to conducting
interviews with teachers. The value of research depends as much on its ethical veracity as
on the novelty of its discoveries (Walliman, 2011). The researcher, with approval from
participants, explained that their participation is voluntary and statements will be kept
confidential and that the information is only for research use and the researcher will not
ask participants to mention their names in order to preserve their privacy, likewise
objectives of the study were explained. The researcher followed these instructions in
compliance with Ethical clearance at the School of Education Ethics Committee at
University of Cardiff Metropolitan.
93
4.8 Description of the Independent Variables
It can be seen in Table 4.4the description of student sample according to the following
variables: sector, gender and section. The highest percentage is for those who taught in public
schools forming a rate of 71.8%, and the students‟ percentage in private schools forming a rate
of 28.2%. Regarding gender variable it can be seen from Table 4.1that the percentage of males
was 49.4% and females 50.6%. Description of student sample regarding the classroom, Table
4.4shows that the highest percentage was for the student in classroom two (36.4%), and then
classroom one at 35.4%. The lowest percentage for the student was in classroom five at 2.9%.
Table 4.4: Description of student sample according to the following variables: Sector,
gender, section (N=308)
Variables category Frequency Percent
SECTOR
public 221 71.8
private 87 28.2
Gender
male 152 49.4
female 156 50.6
Classroom
1 109 35.4
2 112 36.4
3 35 11.4
4 43 14.0
5 9 2.8
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Figure 4.1: Description of student sample according to the following variables:
Sector, gender, section. (N=308)
Table 4.5: Description of teachers’ sample according to the following variables: Sector,
gender, specialisation, grade teaching, age, Number of years in teaching, attended any
ICT training courses (N=331)
Variables Category Frequency Percent
Sector
Public 212 64.0
Private 119 36.0
Gender
Male 167 50.5
Female 164 49.5
Specialisation
Math 82 24.8
Arabic 79 23.9
Science 90 27.2
English 80 24.2
95
Grade teaching
10 155 46.8
11 94 28.4
12 82 24.8
Age
20-30 58 17.5
31-40 137 41.4
41-50 94 28.4
51-60 42 12.7
Number of years in
teaching
Less than 5 year 52 15.7
5-9 year 55 16.6
10-14 year 64 19.3
15-19 year 60 18.1
20-24 year 40 12.1
25 year and more 60 18.1
Attended any ICT
training courses
Yes 241 72.8
No 90 27.2
The teachers sample was 331, formed by 167 males (50.5%) and 164 females (49.5%). Table
4.5 shows that the highest percentage was for those working in public schools at 64.0%, and
those in private schools at 36.0%. In terms of specialism, the highest rate was for those with
science specialisation - 27.2%, preceded by mathematics specialisation at 24.8%, English
specialisation 24.2%, and the lowest representatives were Arabic specialists at 23.9%.
96
Table 4.5 shows the description of teachers sample according to the grade teaching, it notice
that the high proportion of tenth grade teachers with 46.8%, then teachers 11 Grade teachers
with 28.4%, followed by twelfth grade with (24.8%. In terms of the teachers‟ age distribution,
the highest representation was from the age group 31-40 years with a rate (41.4%), then the 41-
50 age group (28.4%), followed by the 20 - 30 age group (17.5%) and the 51-60 age group
(12.7%). In terms of teaching experience, 19.3% of respondents had worked for 10-14 years,
with 12.1% having 20-24 year experience. The remaining experience categories were all at
similar levels. In terms of teachers‟ courses in the field of e-learning, the largest proportion
was for those who received training in the field of e-learning with a rate of 72.8%, and 27.2%
did not receive training in the field of e-learning.
4.9 Critical Overview
This chapter has presented an explanation of the research's theoretical framework, the
approach and the plan of the study. It has also presented a detailed account of how the
research plan was carried out and progressed. Methodology, methods and research
instruments have also been explained. This includes the design and application of
research's instruments. This chapter has also presented the data collection process,
including sampling and the instrument analysis procedures. Finally, it presented validity
and reliability and the ethical issues related to the study. The next chapter focuses on an
analysis of the findings of the data collected from questionnaires and interviews. The
questionnaires will be analysed using a variety of statistical methods and tests. A content
analysis will be applied to the interviews, using codes and categories.
97
5 Data Analysis
5.1 Introduction
Thus far, the research has considered the relevant literature, the general background to the
study and the methodology undertaken in gathering the data. Now, the data is analysed
with a view to answering the research questions outlined in Chapter 1 of this thesis.
Firstly, the quantitative analysis is undertaken by examining the questionnaire of both
teachers and students. Secondly, attention is turned to the analysis of the qualitative data,
with responses from both teachers and policy makers.
5.2 Questionnaire Analysis
5.2.1 Overview
The level of ICT use among teachers is considered to be the basis for identifying the
degree of ICT skills they possess and can implement across the curriculum, or in ICT itself.
In order to determine the level of ICT usage among teachers, arithmetic means, standard
deviations, rank, mode, frequencies, and percentages regarding ICT skills and its
applications were calculated. Furthermore, an arbitrary „level‟ was identified (high,
medium, low) based on the following equation:
This equation is used to organise and summarise data to provide a simple indication of the
level of the means associated with each response. Marwan (2000) used a similar equation
to group his results. Using these intervals of 1.33, we can define 3.67 to 5.00 as a „high‟
response, 2.34 to 3.67 as a „medium‟ response and any value below 2.34 as a „low
response‟. In the analysis, the researcher also uses a value of „1‟ to differentiate between
high (or divergent) and low (or convergent) levels of standard deviation.
Response level Scales value
owl 1.33 to 2.33
medium‟ 2.34 to 3.67
high‟ 3.68 to 5.00
33 . 1 3
1 5
levels of number
ue lowest val s scale' the - lue highest va s scale' the
98
5.3 The Teachers’ Results
5.3.1 ICT Confidence amongst Teachers
Table 5.1 shows the results associated with teachers ICT confidence, where they were
invited to rate that confidence on a likert scale of 1-5, from ‘Very unconfident’ (1) to ‘Very
confident’ (5) for a range of ICT skills or applications.
Table 5.1 – ICT Confidence of School Teachers (N=331)
No.
Please tick one
box only that
indicates the
appropriate choice
in each row
Mean Standard
Deviation Rank Mode
Percentage
Level of use
Very
unconfident
1
Not
confident
2
Unsure
3
Confident
4
Very
confident
5
1
Basics of operating
PC (using keyboard, mouse
… etc.)
4.59 .863 1 5 3.0 1.8 1.5 20.2 73.4 High
2
Managing files
(delete, move to, … etc.)
4.44 .975 2 5 2.7 5.1 3.3 23.0 65.9 High
15
Searching for
information on the Internet
4.30 1.019 3 5 3.3 5.1 6.0 29.6 55.9 High
14 Internet browsing 4.25 1.047 4 5 3.3 6.6 5.4 31.1 53.5 High
3
Using word
processor ( such as
word program )
4.23 1.094 5 5 3.6 7.6 6.3 26.9 55.6 High
9
Searching for saved
data on hard disk or compact disk
4.13 1.082 6 5 3.6 7.3 9.4 32.3 47.4 High
16 Downloading files
from the Internet 4.11 1.159 7 5 3.3 10.9 9.7 24.2 52.0 High
17
Using Email (
reading and sending
mails)
4.08 1.191 8 5 3.9 11.5 9.1 23.9 51.7 High
8 Using PowerPoint software
3.86 1.192 9 5 4.5 13.3 11.5 32.6 38.1 High
10
Using data show
basis on PC as projection tool
3.74 1.216 10 5 4.5 16.0 15.1 29.9 34.4 High
12
Deleting or editing
pictures, animations
or movies
3.60 1.177 11 4 3.9 18.7 17.2 33.5 26.6 Medium
18
Using chat rooms
and forums
(Facebook, Twitter)
3.60 1.307 11 5 6.3 20.2 14.8 24.8 33.8 Medium
6
Combining files from different
resources (sound or
video files ) to create presentations
3.59 1.244 12 4 5.1 20.2 14.8 30.5 29.3 Medium
13 Using digital
camera 3.53 1.216 13 4 5.4 18.1 20.8 28.7 26.9 Medium
4 Use spreadsheet processor (such as
excel program )
3.50 1.179 14 4 4.5 21.1 15.7 36.6 22.1 Medium
7 Producing learning software
3.20 1.219 15 2 7.3 26.3 24.2 24.2 18.1 Medium
5
Creating or Using
data base processor
(such as access
program)
3.09 1.209 16 2 6.9 32.9 18.7 26.6 14.8 Medium
99
Again, we have applied the levels based on those previously describe: The degree of use is
classified as high when the arithmetic mean ranges between (3.68-5), medium when the
arithmetic mean ranges between (2.34-3.67) and low when the arithmetic mean ranges
between (1-2.33).
It is notable from Table 5.1 that the level of teachers' confidence in using ICT and its
applications is high, with an overall arithmetic mean of 3.71 with standard deviation of
0.872. Since the standard deviation is relatively low – i.e. it is less than one, it indicates
convergence among the study sample. The results also show that the highest skill or
application in the teachers‟ responses was „utilising the basics of operating the ICT (such as
using the keyboard, mouse, etc.)‟ where the arithmetic mean was 4.59 and the standard
deviation 0.863. The mode had a value of 5, indicating the highest response rate that was
„Very confident‟, with a percentage response rate of 73.4%. „Managing files‟ was second,
where the arithmetic mean was 4.44 with a standard deviation of 0.975 –implying a lesser
degree of convergence among teachers at this level. The mode was 5, which indicates that
the highest response was „Very confident‟, with a percentage response rate of 65.9%.
The lowest level was among teachers was confidence in „designing web pages or personal
sites‟ where the arithmetic mean was 2.69 with standard deviation of 1.153, highlighting a
greater disparity among teachers at this level. The mode had a value of 2, which indicates
the highest response was „Not confident‟, with a percentage response rate of 39%. The
teachers' level in using different designing programs (Photoshop, Flash) ranked slightly
better, with an arithmetic mean of 2.78 and standard deviation of 1.114 – again
highlighting a disparity among teachers at this level. The mode had a value of 2 which
indicates that the highest response was „Not confident‟ with a percentage response rate of
38.7%.
19 Publishing a
personal blog 2.84 1.095 17 2 7.6 36.0 31.4 14.8 10.3 Medium
11 Using different designing programs
(Photoshop, Flash)
2.78 1.114 18 2 9.1 38.7 27.5 15.1 9.7 Medium
20 Designing web page or personal
site
2.69 1.153 19 2 12.4 39.0 26.0 12.4 10.3 Medium
TOTAL 3.71 .827 - - - - - - - High
100
5.3.1.1 ICT Usage Level for Teachers by Comparison with Associates and Students
The levels relating to the use of ICT and its applications among teachers, in comparison
with associates and students, provides a vital index for assessing ICT skills and its
applications by the teaching community. In order to determine the level of ICT use for
teachers compared to their associates and students, the arithmetic means, standard
deviations, rank, and range, mode, frequencies and percentages for skills in using ICT and
its applications as shown in Table 5.2.
It is notable from Table 5.2 that the levels of using ICT and its applications among teachers
is moderate in comparison with their associates, where the arithmetic mean was 3.21 with
standard deviation of 1.062. The Mode had a value of 3 which indicate that the highest
response was „Average‟ with a percentage response rate of 41.4%
Table 5.2: ICT Usage Level for Teachers by Comparison with Associates, and
Students (N=331)
No.
Mean Standard
Deviation
Mode Percentage Level of
use Very
low
1
2 3 4
Very
high
5
1
How do you describe
your level in using
ICT in comparison
with your associates
at school?
3.21 1.062 3 6.9 14.8 41.4 24.5 12.4
Medium
2
How do you describe
your level in using
ICT in comparison
with your students at
school?
3.31 1.171 3 7.3 16.9 32.9 23.9 19
Medium
Table 5.2 shows also that the level of using ICT and its applications amongst teachers in
comparison with their students were again moderate, with an arithmetic mean of 3.31 and
standard deviation of 1.171. Since the standard deviation is relatively high and greater than
integer one it indicates a disparity among teachers at this level. The mode had a value of 3
which indicates that the highest response was „Average‟ with a percentage response rate of
32.9%.
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5.3.2 ICT Usage in Teaching Practice
Teachers were also asked to describe the frequency of their use ICT and its applications in
the teaching process, whether at school or at home. This is an indicator of their proficiency
in ICT, and how likely they are to embed it in teaching practice. In order to determine this,
the arithmetic means, standard deviations, rank, and, mode, frequencies and percentages
for skills in using ICT and its applications are calculated.
It is notable from table 5.3 that the level of using ICT and its applications by teachers in the
teaching process at school was low, with an overall arithmetic mean of 2.26 and standard
deviation of 0.858. Since the standard deviation is relatively low and less than integer one,
it indicates a convergence among teachers at this level. The results also show that the
highest rated skill or application of teachers in the usage of ICT in the teaching process at
school was „the use of information contained on the hard drive or compact disc‟ where the
arithmetic mean was 2.91 and the standard deviation 1.350, which highlights a significant
disparity among teachers in their use. The Mode had a value of 3 which indicates that the
highest response rate was „Monthly‟ where the percentage of teachers who responded was
29%.
Second was the „use of the Internet by teachers to obtain teaching resources‟ with an
arithmetic mean of 2.79 and a standard deviation of 1.299, highlighting a high level of
disparity amongst respondents... The mode had a value of 3 which indicates that the
highest response was „Monthly‟, with a percentage response rate of 31.4%.
The lowest rated skill or application was „using e-mail to communicate with parents‟ with
an arithmetic mean of 1.79 and standard deviation of 1.041. The Mode had a value of 1
which indicates that the highest response regarding their use was „Never‟ with a percentage
response rate of 59.8%.
Table 5.3 indicates that the level of implementing ICT and its applications in the teaching
process at home was also low, with an arithmetic mean of 2.31 with standard deviation of
102
0.795. Since the standard deviation is relatively low this indicates convergence within the
data. The results also show that the highest rated skill or application in the responses was
for „using the Internet to obtain teacher resources‟ where the arithmetic mean had a value
of 3.51 and standard deviation of 1.358 – signalling a greater disparity amongst
respondents. The mode had a value of 5, which indicates that the highest response rate was
„Daily‟ with a percentage response rate of 32.6%. Second was „using information
contained on the hard drive or compact disc‟ where the arithmetic mean had a value of 3.31
with standard deviation of 1.413 - which highlights a significant disparity amongst
respondents. The mode had a value of 5 which indicates that the highest response rate was
„Daily‟ with a percentage response rate of 29%.
The least used skills/applications were again „using e-mail to communicate with parents‟
where the arithmetic mean was 1.11 with standard deviation of 1.041. The Mode had a
value of 1 which indicates that the highest response was „Never‟ with a percentage
response rate of 71.3%.
103
Table 5.3: Teachers use of ICT at school or home
(N=331)
At school At home Lev
el of u
se
Percentage
Mo
de
Ran
k
Stan
dard
Dev
iation
Mean
No. [Tick the option that
indicates both school and
home use] Mean
Stan
dard
Dev
iation
Percentage Lev
el of u
se
Nev
er
Occasio
nally
Mo
nth
ly
Week
ly
Daily
Ran
k
Mo
de
Nev
er
Occasio
nally
Month
ly
Week
ly
Daily
5 5 1 1 1
5 5 1 1 1 Medium
18.1 22.4 29.0 11.5 19.0 3 1
1.350 2.91 3 Look up information on a
hard disc drive or compact
disc 3.05 1.433
3
5
17.8 24.8 13.9 21.8 21.8 Medium
Medium 21.8 18.7 31.4 15.1 13.0 3 2 1.299 2.79 4 Use the Internet to obtain
teaching resources. 2.52 1.270 4 2 26.3 29.3 19.0 17.2 8.2 Medium
Medium 22.7 19.9 29.3 15.1 13.0 3 3 1.313 2.76 1 Create a document using a
word processor 3.31 1.413 2 5 13.0 20.8 17.2 19.9 29.0 Medium
Medium 35.3 10.3 29.3 9.4 15.7 1 4 1.443 2.60 7 Set computer-based
homework 3.51 1.358 1 5 9.1 19.6 14.8 23.9 32.6 Medium
Medium 25.7 24.8 37.8 8.2 3.6 3 5 1.066 2.39 6 Create lessons that use
presentation software 2.41 1.226 7 2 27.2 32.0 21.5 11.2 8.2 Medium
Medium 24.2 29.6 35.3 6.6 4.2 3 6 1.052 2.37 15 Use subject
specificsoftware 2.46 1.170 6 2 23.6 33.2 23.6 13.3 6.3 Medium
Low 33.5 19.6 31.1 12.1 3.6 1
7 1.164 2.33 2
Manipulate graphics or
images using graphics
software 2.51 1.558
5 1 40.8 16.3 12.7 11.5 18.7
Medium
Low 33.5 21.1 36.0 4.8 4.5 3
8 1.111 2.26 5
Create lessons that
incorporate simulation
software 2.18 1.157
10 1 34.4 32.9 19.0 7.9 5.7
Low
Low
35.6 23.6 33.8 5.1 1.8 1
9
1.023 2.14 8
Create lessons that
incorporate students' use of
a digital video, graphics or
sound editors.
2.30 1.396
8
1 40.8 22.4 15.1 9.7 12.1
Low
Low 46.2 13.3 29.0 6.3 5.1 1 10 1.209 2.11 9 Use email to communicate
with other teachers. 1.78 1.127 11 1 59.5 17.2 13.0 6.6 3.6 Low
Low 53.5 9.4 31.4 3.6 2.1 1 11 1.087 1.92 13 Use software to monitor
the students' scores 1.56 1.038 14 1 72.5 7.9 13.3 3.3 3.0 Low
Low 55.9 9.1 29.6 2.7 2.7 1 12 1.094 1.87 10 Use email to communicate
with your students. 1.64 1.120 13 1 69.2 10.3 12.1 3.9 4.5 Low
Low 54.1 12.1 29.9 2.1 1.8 1 13 1.034 1.85 14 Use interactive
whiteboards 1.68 1.081 12 1 64.7 13.0 15.7 2.7 3.9 Low
Low
59.5 6.3 28.7 3.6 1.8 1
14
1.077 1.82 12
Participate in an on-line
interactive discussion or
bulletin board with
students
1.54 .963
15
1 71.3 10.0 13.9 3.0 1.8
Low
Low 59.8 7.3 29.3 1.8 1.8 1 15 1.041 1.79 11 Use email to communicate
with your students‟ parents 2.21 1.149 9 2 32.6 33.8 17.2 12.1 4.2 Low
Low - - - - - - .838 2.26 TOTAL 2.31 .795 - - - - - - Low
104
5.3.2.1 Relationship between the use of ICT in teaching and teaching methods
Teachers were also invited assess the extent to which the use of ICT in teaching practice
affects their practice. Table 5.4 indicates that the teachers believe there is a positive
relationship between the use of the ICT and its applications and the nature of their teaching
methods. Here, the responses had an arithmetic mean of 2.68 with a low standard
deviation of 0.874. The mode had a value of 3 which indicates that the highest response
was „Somewhat high‟ with a percentage response rate of 44.4%.
Table 5.4: Relationship between use of ICT in teaching and teaching methods
(N=331)
No.
Mean
Standard
Deviation Mode
Percentage
Level of
use
No
change
1
A
little
2
Somewhat
high
3
High
4
3
To what extent
does the use of
ICT in teaching
change your
teaching
methods?
2.68 .874 3 10.4 28.4 44.4 16.9 Somewhat
high
Figure 5.1: Relationship between use of ICT in teaching and teaching methods
No change
A little
Somewhat high
High
0
5
10
15
20
25
30
35
40
45
50
1 2 3 4
Percentage
To what extent does the use of ICT in teaching change your teaching methods?
105
5.3.3 The Perspective of Teachers on ICT Use
The opinions of teacher regarding the use of ICT and its application in the teaching process
are regarded to be an ongoing incentive towards the progress in using ICT and developing
learning styles. No progress could be attained unless the teacher is positive about the need
technology into the classroom. In order to achieve this, advantages and disadvantages
related to implementing ICT in teaching process from the perspectives of teachers were
identified as well as their opinions on the effect of using technology on the teaching
process in the classroom. The following represents an analysis of this element of the
teacher questionnaire.
5.3.3.1 Advantages and disadvantages of using ICT in your teaching method
The determination of the advantages and disadvantages related to using ICT in the teaching
process from contributes to identifying both the advantages (in order to strengthen them)
and disadvantages (in order to avoid and solve them). Arithmetic means, standard
deviations, rank, mode, frequencies, and percentages related to skills of using ICT and its
applications were calculated as shown in Table 5.5. Here, teachers were invited to agree or
disagree with a series of positive (advantageous) or negative (disadvantageous) statements.
106
Table 5.5: Advantages and disadvantages of using ICT in teaching method (N=331)
No.
Advantages and
disadvantages of using ICT
in your teaching method
Mean Standard
Deviation Rank Mode
Percentage
Level
of
use
Str
on
gly
disa
gre
e
Disa
gre
e
Neith
er
ag
ree
no
r d
isagree
Ag
ree
Str
on
gly
agree
5 5 1 1 1
2 ICT makes teaching more
interesting for me 4.18 .824
1 4 1.2 2.4 12.1 46.2 38.1
High
6 ICT improves the presentation of material in my lessons
4.07 .868 2
4 1.5 3.9 13.6 48.3 32.6 High
1 I find it easy to think of ways
to use ICT in my teaching 3.96 .793 3
4 .6 4.2 17.2 54.7 23.3 High
4 ICT makes my lessons more
diverse 3.95 .983
4 4 3.9 4.8 13.0 49.2 29.0
High
13 ICT has given me more confidence to extend my use of
ICT to other topics
3.86 .852 5
4 2.1 3.3 21.5 52.6 20.5 High
10 ICT makes the lessons more fun for the students
3.78 .968 6
4 3.0 6.9 21.1 46.8 22.1 High
7 ICT makes preparing lessons
quicker 3.49 1.066
7 4 5.1 12.7 26.6 39.6 16.0
Medium
12
ICT often prevent teaching because of interruption in work
or in software 3.09 .977
8
3 6.3 19.3 38.4 30.8 5.1
Medium
8 ICT limits the content of my
lessons 2.89 1.216
9 2 13.3 29.0 24.8 21.8 11.2
Medium
9 ICT makes preparing lessons
more difficult 2.81 1.153
10 2 12.4 32.3 24.8 22.7 7.9
Medium
11 ICT makes it more difficult to
control the class 2.49 1.068
11 2 17.5 38.1 26.6 13.3 4.5
Medium
5 ICT decreases students‟
motivation 2.34 1.229
12 1 31.4 29.0 19.6 13.6 6.3
Medium
3 ICT makes teaching more
difficult 2.21 1.032
13 2 26.0 42.9 17.8 10.6 2.7
Low
14 TOTAL 3.32 .411 - - - - - - - Medium
The results from Table 5.5 indicate that the highest advantages for implementing ICT in the
teaching process was „ICT makes teaching more interesting for me‟ where the arithmetic
mean is 4.18 with standard deviation of 0.824, implying convergence amongst respondents.
The mode was 4 which indicates that the highest response was „Agree‟ with a percentage
response rate of 46.2%. Secondly, „ICT improves the presentation of material in my
lessons‟ was the next advantage, with a mean of 4.07 and standard deviation of 0.868,
implying convergence amongst respondents. The mode was 4 which indicates that the
highest response was „Agree‟, with 48.3% of respondents.
The most significant disadvantage given by respondents that can arise as a result for using
ICT in the teaching process was „ICT often prevent teaching because of interruption in
work or in software where the arithmetic mean was 3.09 with a standard deviation of .977.
The mode was 3 which indicates that the highest response rate was „Neither Agree or
107
Disagree‟, with a percentage response rate of 38.4%. The next most significant
disadvantage shown in the results was „ICT limits the content of my lessons‟ with a mean
of 2.89, a standard deviation of 1.216 (implying a high level of divergence) and a modal
group of 2, or „Disagree‟, with 29% of respondents sharing this viewpoint.
5.3.3.2 The effect of ICT use in teaching on teachers
The use of ICT in teaching can impact a teacher in a variety of different ways, and can
contribute to their development and skills. They develop and changes according the
methods they believe are the most effective, and as such their opinion of ICT on their
teaching affects the ways in which they develop in future. Arithmetic means, standard
deviations, rank, range, mode, frequencies, and percentages related to skills of using ICT
and its applications were calculated as shown in Table 5.6.
Table 5.6: The impact of using ICT in teaching on teachers (N=331)
N
o.
When you use ICT in
teaching, in what ways
does this affect you as
a teacher
Mean
Standar
d
Deviatio
n
Rank Mod
e
Percentage
Level
of
Use
Str
on
gly
disa
gre
e
Disa
gre
e
Neith
er
ag
ree
no
r
disa
gre
e
Ag
ree
Str
on
gly
ag
ree
5 5 1 1 1
3
ICT positively changes
the learning climate in
my classroom
3.87 .897
1
1 2.7 3.
6
20.
2
50.
8
22.
7
High
1 ICT enhances my role as
a teacher 3.83 .935
2 1 2.7
5.
4
20.
8
48.
0
23.
0
High
4
ICT positively changes
the relationship between
me and my students
3.77 .928
3
1 2.4 6.
0
24.
2
46.
5
20.
8
High
2 ICT makes me feel more
professional 3.70 1.040
4 1 3.9
9.
1
22.
4
42.
0
22.
7
High
5
ICT positively changes
the usual relationship
between students in my
classroom
3.61 .919
5
1 2.7 5.
7
35.
6
39.
6
16.
3
Mediu
m
TOTAL 3.76 .826 - - - - - - - High
It is notable from Table 5.6 that there is a significant impact from the use of ICT and its
applications on teachers. The arithmetic average reached 3.76 with standard deviation of
0.826 - which indicates a convergence among teachers towards this viewpoint.
108
The results also show that the statement „ICT positively changes the learning climate in my
classroom‟ was most strongly agreed by respondents, where the arithmetic mean was 3.87
with standard deviation of 0.897. A modal value of 4 indicates that the highest response
rate was „Agree‟ with a percentage response rate of 50.8%. Second was the statement „ICT
enhances my role as a teacher‟ where the arithmetic mean was 3.83 with standard deviation
of 0.935. A modal value of 4 indicates that the highest response was „Agree‟ with a
percentage response rate of 48%.
The least significant impact regarding the use of ICT in the teaching process was that „ICT
positively changes the usual relationship between students in my classroom‟ where
arithmetic mean was 3.61 with standard deviation of 0.919 which implies convergence
around this viewpoint. A mode of 4 indicates that the highest response was „Agree‟, with a
percentage response rate of 39.6%. Another less significant impact was that „ICT makes
me feel more professional‟ with an arithmetic mean of 3.70 and standard deviation of
1.040. The mode of 4 indicates that the highest response was „Agree‟, with a percentage
response rate of 42%.
5.4 Comparing Teachers’ Confidence with Use
It is useful to examine the impact that overall confidence in the application of ICT methods has in
teachers’ overall use of those methods or applications. To do this, we can sum the means of the
dimensions within the teacher questionnaires and examine whether or not there is any correlation
between the two major variables of confidence and use.
Table 5.7 below shows the output for the correlation between teachers’ use of ICT (the dependent
variable) and teachers’ confidence in their ICT abilities) the independent variable. The Pearson
correlation analysis revealed a significant and positive relationship (r = .30, N = 331, p = .00). The
correlation was moderate in strength, and as such there higher confidence levels in ICT ability were
associated with higher levels of ICT use.
109
Table 5.7: Correlation Between ICT Confidence and Use
5.5 Analyzing Teacher Responses by Subject
To this point the analysis has focused on investigating the separate elements of the
teachers‟ survey. Now it is possible to examine the results broken down by the subjects in
which the teacher specializes in. To do this, the analysis now examines each of the major
likert scale responses included in the questionnaire, with the results split into Maths,
Arabic, Science, and English.
Usagemean
In this analysis, the research compares means as method of examining differences, and
utilises the ANOVA testing method to examine significance, due to the fact that the
independent variable is split into more than two possible answers.
Firstly, the questionnaire considered teachers confidence in ICT use. Table 5.8 below
shows the overall results, with N number of cases for each instance of subject specialism.
The results show some general patterns in the data, English and science teachers tend to be
more confident in their use of ICT than mathematics or Arabic. I.e. they have broadly a
higher mean in this likert scale.
However, the importance of those figures relies on the significance of the tests shown in
Table 5.9. The „sig‟ value equates to the „p‟ result, whereby any value that is less than .05 is
significant with 95% confidence. Here we can see that the variance in mean is significant
across subject specialism for teachers in at least 10 of the factors below.
Correlations
teacherconfiden
cemean
teacherusagem
ean
teacherconfidencemean
Pearson Correlation 1 .300**
Sig. (2-tailed) .000
N 331 331
teacherusagemean
Pearson Correlation .300** 1
Sig. (2-tailed) .000
N 331 331
**. Correlation is significant at the 0.01 level (2-tailed).
110
As an example, in operating a PC, the mean for mathematics teachers is 4.54, whilst the
mean for English teachers is 4.79, with a p value = 0.039 (less than 0.05 and therefore
significant).
Table 5.8: Teachers Confidence in ICT Use
Maths Arabic Science English Total
Mean N Mean N Mean N Mean N Mean N
Basics of operating PC (using keyboard,
mouse … etc.)
4.54 82 4.41 79 4.63 90 4.79 80 4.59 331
Managing files (delete, move to, … etc.) 4.37 82 4.11 79 4.64 90 4.61 80 4.44 331
Using word processor ( such as word
program )
4.10 82 3.99 79 4.44 90 4.38 80 4.23 331
Use spreadsheet processor (such as
excel program )
3.59 82 3.33 79 3.64 90 3.44 80 3.50 331
Creating or Using data base processor
(such as access program)
2.98 82 .06 79 3.28 90 3.04 80 3.09 331
Combining files from different resources
( sound or video files ) to create
presentations
3.39 82 3.37 79 3.71 90 3.86 80 3.59 331
Producing learning software 3.01 82 3.11 79 3.34 90 3.30 80 3.20 331
Using PowerPoint software 3.57 82 3.78 79 4.11 90 3.96 80 3.86 331
Searching for saved data on hard disk or
compact disk
3.95 82 3.89 79 4.29 90 4.36 80 4.13 331
Using data show basis on PC as
projection tool
3.54 82 3.53 79 3.99 90 3.86 80 3.74 331
Using different designing programs
(Photoshop, Flash)
2.67 82 2.73 79 3.02 90 2.65 80 2.78 331
Deleting or editing pictures, animations
or movies
3.38 82 3.47 79 3.80 90 3.74 80 3.60 331
Using digital camera 3.32 82 3.46 79 3.56 90 3.81 80 3.53 331
Internet browsing 4.04 82 4.11 79 4.32 90 4.51 80 4.25 331
Searching for information on the Internet 4.09 82 4.15 79 4.42 90 4.51 80 4.30 331
Downloading files from the Internet 3.82 82 3.89 79 4.33 90 4.36 80 4.11 331
Using Email ( reading and sending
mails)
3.88 82 3.84 79 4.16 90 4.44 80 4.08 331
Using chat rooms and forums
(Facebook, Twitter)
3.52 82 3.44 79 3.56 90 3.86 80 3.60 331
Publishing a personal blog 2.66 82 2.90 79 2.84 90 2.98 80 2.84 331
Designing web page or personal site 2.51 82 2.90 79 2.56 90 2.83 80 2.69 331
111
Sum of
Squares df
Mean
Square F Sig.
Between Groups 6.224 3 2.075 2.830 .039
Within Groups 239.716 327 .733
Total 245.940 330
Between Groups 14.992 3 4.997 5.473 .001
Within Groups 298.609 327 .913
Total 313.601 330
Between Groups 11.909 3 3.970 3.388 .018
Within Groups 383.179 327 1.172
Total 395.088 330
Between Groups 5.088 3 1.696 1.222 .301
Within Groups 453.655 327 1.387
Total 458.743 330
Between Groups 4.519 3 1.506 1.031 .379
Within Groups 477.578 327 1.460
Total 482.097 330
Between Groups 14.453 3 4.818 3.177 .024
Within Groups 495.843 327 1.516
Total 510.296 330
Between Groups 6.151 3 2.050 1.385 .247
Within Groups 484.085 327 1.480
Total 490.236 330
Between Groups 13.703 3 4.568 3.281 .021
Within Groups 455.179 327 1.392
Total 468.882 330
Between Groups 13.915 3 4.638 4.069 .007
Within Groups 372.756 327 1.140
Total 386.671 330
Between Groups 13.595 3 4.532 3.123 .026
Within Groups 474.538 327 1.451
Total 488.133 330
Between Groups 7.773 3 2.591 2.109 .099
Within Groups 401.683 327 1.228
Total 409.456 330
Between Groups 10.521 3 3.507 2.566 .055
Within Groups 446.839 327 1.366
Total 457.360 330
Between Groups 10.590 3 3.530 2.416 .066
Within Groups 477.761 327 1.461
Total 488.350 330
Between Groups 11.178 3 3.726 3.476 .016
Within Groups 350.508 327 1.072
Total 361.686 330
Between Groups 10.462 3 3.487 3.429 .017
Within Groups 332.523 327 1.017
Total 342.985 330
Between Groups 20.581 3 6.860 5.307 .001
Within Groups 422.718 327 1.293
Total 443.299 330
Between Groups 18.807 3 6.269 4.564 .004
Within Groups 449.151 327 1.374
Total 467.958 330
Between Groups 8.098 3 2.699 1.588 .192
Within Groups 555.655 327 1.699
Total 563.752 330
Between Groups 4.430 3 1.477 1.234 .297
Within Groups 391.401 327 1.197
Total 395.831 330
Between Groups 9.118 3 3.039 2.314 .076
Within Groups 429.450 327 1.313
Total 438.568 330
Using chat rooms and forums (Facebook,
Twitter)
Publishing a personal blog
Designing web page or personal site
Searching for saved data on hard disk or
compact disk
Using data show basis on PC as projection
tool
Using different designing programs
(Photoshop, Flash)
Deleting or editing pictures, animations or
movies
Using digital camera
Internet browsing
Basics of operating PC (using keyboard,
mouse … etc.)
Managing files ( delete, move to, … etc.)
Using word processor ( such as word
program )
Using Email ( reading and sending mails)
Use spreadsheet processor (such as excel
program )
Searching for information on the Internet
Downloading files from the Internet
Creating or Using data base processor (such
as access program)
Combining files from different resources (
sound or video files ) to create presentations
Producing learning software
Using PowerPoint software
Table 5.9: ANOVA Test results for Teachers’ Confidence in their ICT use, by subject
112
Similarly, it is possible to examine the ICT use in schools, by subject. Here this is shown
in Table 5.10. Again, the data describes a pattern whereby results for Arabic, Science and
English teachers are significantly higher than Mathematics – implying therefore that
Mathematics teachers use less ICT in schools than their counterparts. From a significance
perspective, the ANOVA Table 5.12 shows that eleven of the ICT features display
significance in the variability of the mean averages.
Table 5.10: Teachers’ ICT Use in Schools, by subject
Math Arabic Science English Total
Mean N Mean N Mean N Mean N Mean N
Create a document using a word
processor
2.38 82 2.89 79 2.94 90 2.81 80 2.76 331
Manipulate graphics or images
using graphics software
2.09 82 2.20 79 2.52 90 2.48 80 2.33 331
Look up information on a hard disc
drive or compact disc
2.40 82 3.01 79 3.14 90 3.06 80 2.91 331
Use the Internet to obtain teaching
resources.
2.28 82 2.99 79 3.00 90 2.88 80 2.79 331
Create lessons that incorporate
simulation software
1.93 82 2.34 79 2.50 90 2.24 80 2.26 331
Create lessons that use presentation
software
2.10 82 2.34 79 2.71 90 2.39 80 2.39 331
Set computer-based homework 2.30 82 2.62 79 3.03 90 2.39 80 2.60 331
Create lessons that incorporate
students' use of a digital video,
graphics or sound editors.
1.70 82 2.11 79 2.41 90 2.31 80 2.14 331
Use email to communicate with
other teachers.
1.74 82 2.04 79 2.19 90 2.46 80 2.11 331
Use email to communicate with
your students
1.60 82 1.90 79 1.99 90 2.00 80 1.87 331
Use email to communicate with
your students‟ parents
1.54 82 1.80 79 1.93 90 1.86 80 1.79 331
Participate in an on-line interactive
discussion or bulletin board with
students
1.60 82 1.81 79 1.94 90 1.91 80 1.82 331
Use software to monitor the
students' scores
1.65 82 1.92 79 2.13 90 1.94 80 1.92 331
Use interactive whiteboards 1.72 82 1.85 79 1.99 90 1.85 80 1.85 331
Use subject-specific software 2.00 82 2.28 79 2.71 90 2.46 80 2.37 331
For those significant variances, it is possible to examine the high and low values for the
mean. Table 5.11 below shows that Science teachers across a majority of features are
113
significantly more likely to use those ICT features than other subjects, whereas
mathematics teachers are notably less likely to do so.
Table 5.11: Highest and Lowest Mean averages of ICT Use by Subject (with p > .05)
Highest Mean
Subject (value in brackets)
Lowest Mean
Subject (value in brackets)
Create a document using a word
processor
Science (2.94) Mathematics (2.38)
Manipulate graphics or images
using graphics software
Science (2.52) Mathematics (2.09)
Look up information on a hard disk
drive or compact disc
Science (3.14)
Mathematics (2.40)
Use the Internet to obtain teaching
resources.
Science (3.00) Mathematics (2.28)
Create lessons that incorporate
simulation software
Science (2.50) Mathematics (1.93)
Create lessons that use presentation
software
Science (2.71) Mathematics (2.10)
Set computer-based homework Science (3.03) Mathematics (2.30)
Create lessons that incorporate
students' use of a digital video,
graphics or sound editors.
Science (2.41) Mathematics (1.70)
Use email to communicate with
other teachers.
English (2.46) Mathematics (1.74)
Use software to monitor the
students' scores
Science (2.13) Mathematics (1.65)
Use subject-specific software Science (2.71) Mathematics (2.00)
114
Table 5.12: ANOVA Test results for Teachers’ ICT Use in Schools, by subject
Sum of
Squares df
Mean
Square F Sig.
Between Groups 16.500 3 5.500 3.257 .022
Within Groups 552.165 327 1.689
Total 568.665 330
Between Groups 11.194 3 3.731 2.801 .040
Within Groups 435.567 327 1.332
Total 446.761 330
Between Groups 28.764 3 9.588 5.476 .001
Within Groups 572.517 327 1.751
Total 601.281 330
Between Groups 28.910 3 9.637 5.965 .001
Within Groups 528.286 327 1.616
Total 557.196 330
Between Groups 14.852 3 4.951 4.126 .007
Within Groups 392.321 327 1.200
Total 407.172 330
Between Groups 16.475 3 5.492 5.009 .002
Within Groups 358.468 327 1.096
Total 374.943 330
Between Groups 27.686 3 9.229 4.573 .004
Within Groups 659.873 327 2.018
Total 687.559 330
Between Groups 25.278 3 8.426 8.602 .000
Within Groups 320.329 327 .980
Total 345.607 330
Between Groups 21.900 3 7.300 5.187 .002
Within Groups 460.184 327 1.407
Total 482.085 330
Between Groups 8.772 3 2.924 2.478 .061
Within Groups 385.898 327 1.180
Total 394.671 330
Between Groups 7.533 3 2.511 2.344 .073
Within Groups 350.237 327 1.071
Total 357.770 330
Between Groups 6.143 3 2.048 1.776 .152
Within Groups 376.981 327 1.153
Total 383.124 330
Between Groups 10.256 3 3.419 2.947 .033
Within Groups 379.376 327 1.160
Total 389.631 330
Between Groups 3.124 3 1.041 .973 .406
Within Groups 349.915 327 1.070
Total 353.039 330
Between Groups 23.043 3 7.681 7.339 .000
Within Groups 342.250 327 1.047
Total 365.293 330
Use email to communicate with
your students‟ parents
Participate in an on-line interactive
discussion or bulletin board with
students
Use software to monitor the
students' scores
Use interactive whiteboards
Use subject-specific software
Use the Internet to obtain teaching
resources.
Create a document using a word
processor
Look up information on a hard disc
drive or compact disc
Manipulate graphics or images
using graphics software
Use email to communicate with
your students
Create lessons that incorporate
simulation software
Create lessons that use
presentation software
Set computer-based homework
Create lessons that incorporate
students' use of a digital video,
graphics or sound editors.
Use email to communicate with
other teachers.
115
Home use of ICT, as mentioned earlier in the chapter, rated much higher than the use of
ICT in schools. In breaking the analysis by subject, the results do show far less variability
across the various features of ICT. Table 5.13 below shows the results. Here, we notice far
less significant variation in the means, as described in the ANOVA results Table, 5.14,
whereby only 4 of the features have significant variations in their mean, by subject.
Table 5.13: Teachers’ ICT use at Home, by Subject
Math Arabic Science English Total
Mean N Mean N Mean N Mean N Mean N
Create a document using a word
processor
2.72 82 3.00 79 3.26 90 3.20 80 3.05 331
Manipulate graphics or images
using graphics software
2.41 82 2.34 79 2.57 90 2.74 80 2.52 331
Look up information on a hard
disc drive or compact disc
3.04 82 3.24 79 3.44 90 3.51 80 3.31 331
Use the Internet to obtain
teaching resources.
3.24 82 3.37 79 3.64 90 3.79 80 3.51 331
Create lessons that incorporate
simulation software
2.17 82 2.42 79 2.60 90 2.44 80 2.41 331
Create lessons that use
presentation software
2.32 82 2.39 79 2.69 90 2.40 80 2.46 331
Set computer-based homework 2.24 82 2.37 79 3.11 90 2.25 80 2.51 331
Create lessons that incorporate
students' use of a digital video,
graphics or sound editors.
2.01 82 2.15 79 2.32 90 2.20 80 2.18 331
Use email to communicate with
other teachers.
2.39 82 2.06 79 1.98 90 2.80 80 2.30 331
Use email to communicate with
your students
1.76 82 1.82 79 1.70 90 1.84 80 1.78 331
Use email to communicate with
your students‟ parents
1.55 82 1.70 79 1.56 90 1.46 80 1.56 331
Participate in an on-line
interactive discussion or
bulletin board with students
1.68 82 1.77 79 1.60 90 1.53 80 1.64 331
Use software to monitor the
students' scores
1.73 82 1.80 79 1.70 90 1.50 80 1.68 331
Use interactive whiteboards 1.72 82 1.67 79 1.52 90 1.25 80 1.54 331
Use subject-specific software 2.16 82 2.01 79 2.47 90 2.19 80 2.21 331
116
Table 5.14: ANOVA Test results for Teachers’ ICT Use at Home, by subject
Sum of Squares df Mean Square F Sig.
Between Groups 14.756 3 4.919 2.428 .065
Within Groups 662.471 327 2.026
Total 677.227 330
Between Groups 7.397 3 2.466 1.535 .205
Within Groups 525.262 327 1.606
Total 532.659 330
Between Groups 11.418 3 3.806 1.922 .126
Within Groups 647.530 327 1.980
Total 658.949 330
Between Groups 15.203 3 5.068 2.792 .041
Within Groups 593.486 327 1.815
Total 608.689 330
Between Groups 8.008 3 2.669 1.788 .149
Within Groups 488.112 327 1.493
Total 496.121 330
Between Groups 7.034 3 2.345 1.723 .162
Within Groups 445.080 327 1.361
Total 452.115 330
Between Groups 45.348 3 15.116 6.544 .000
Within Groups 755.365 327 2.310
Total 800.713 330
Between Groups 4.216 3 1.405 1.050 .371
Within Groups 437.621 327 1.338
Total 441.837 330
Between Groups 34.438 3 11.479 6.164 .000
Within Groups 608.951 327 1.862
Total 643.390 330
Between Groups 1.028 3 .343 .268 .849
Within Groups 418.428 327 1.280
Total 419.456 330
Between Groups 2.230 3 .743 .688 .560
Within Groups 353.123 327 1.080
Total 355.353 330
Between Groups 2.729 3 .910 .723 .539
Within Groups 411.205 327 1.258
Total 413.934 330
Between Groups 3.935 3 1.312 1.123 .340
Within Groups 381.757 327 1.167
Total 385.692 330
Between Groups 10.752 3 3.584 3.967 .008
Within Groups 295.447 327 .904
Total 306.199 330
Between Groups 9.257 3 3.086 2.366 .071
Within Groups 426.514 327 1.304
Total 435.770 330
Use email to communicate with your students‟ parents
Participate in an on-line interactive discussion or
bulletin board with students
Use software to monitor the students' scores
Use interactive whiteboards
Use subject-specific software
Use email to communicate with your students
Create a document using a word processor
Manipulate graphics or images using graphics software
Look up information on a hard disc drive or compact disc
Use the Internet to obtain teaching resources.
Create lessons that incorporate simulation software
Create lessons that use presentation software
Set computer-based homework
Create lessons that incorporate students' use of a digital
video, graphics or sound editors.
Use email to communicate with other teachers.
117
The teacher questionnaire also invited teachers to agree and disagree with statements made
in relation to their experience of using ICT in teaching. Notably here, the only two
variations in mean which are significant (with a p value of less than 0.05) are for the
statements „I find it easy to think of ways to use computer in my teaching.‟ And „ICT
makes teaching more interesting for me‟. In both the aforementioned statements,
mathematics teachers were the notably variation.
118
Table 5.15: Teachers’ Opinions of ICT use in teaching Practice, by Subject
Math Arabic Science English Total
Mean N Mean N Mean N Mean N Mean N
I find it easy to think of
ways to use computer in my
teaching
3.73 82 4.01 79 3.99 90 4.10 80 3.96 331
ICT makes teaching more
interesting for me
3.93 82 4.28 79 4.22 90 4.28 80 4.18 331
ICT makes teaching more
difficult
2.30 82 2.15 79 2.10 90 2.30 80 2.21 331
ICT makes my lessons more
diverse
3.80 82 3.82 79 4.04 90 4.10 80 3.95 331
ICT decreases students‟
motivation
2.18 82 2.37 79 2.50 90 2.31 80 2.34 331
ICT improves the
presentation of material in
my lessons
3.94 82 4.11 79 4.09 90 4.13 80 4.07 331
ICT makes preparing
lessons quicker
3.48 82 3.66 79 3.40 90 3.43 80 3.49 331
ICT limits the content of
my lessons
2.74 82 3.13 79 2.93 90 2.74 80 2.89 331
ICT makes preparing
lessons more difficult
2.78 82 2.73 79 2.97 90 2.75 80 2.81 331
ICT makes the lessons more
fun for the students
3.73 82 3.85 79 3.81 90 3.73 80 3.78 331
ICT makes it more difficult
to control the class
2.33 82 2.76 79 2.49 90 2.40 80 2.49 331
ICT often prevent teaching
because of interruption in
work or in software
3.09 82 3.27 79 3.08 90 2.94 80 3.09 331
ICT has given me more
confidence to extend my
use of computer to other
topics
3.66 82 4.01 79 3.86 90 3.93 80 3.86 331
119
Table 5.16: ANOVA Test results for Teachers’ Opinions of ICT use in teaching
Practice, by Subject
Sum of
Squares df
Mean
Square F Sig.
Between Groups 6.134 3 2.045 3.322 .020
Within Groups 201.274 327 .616
Total 207.408 330
Between Groups 6.897 3 2.299 3.465 .017
Within Groups 216.940 327 .663
Total 223.837 330
Between Groups 2.741 3 .914 .857 .463
Within Groups 348.455 327 1.066
Total 351.196 330
Between Groups 5.602 3 1.867 1.948 .122
Within Groups 313.419 327 .958
Total 319.021 330
Between Groups 4.439 3 1.480 .979 .403
Within Groups 494.298 327 1.512
Total 498.737 330
Between Groups 1.829 3 .610 .808 .490
Within Groups 246.709 327 .754
Total 248.538 330
Between Groups 3.315 3 1.105 .973 .406
Within Groups 371.373 327 1.136
Total 374.689 330
Between Groups 8.194 3 2.731 1.863 .136
Within Groups 479.444 327 1.466
Total 487.637 330
Between Groups 3.020 3 1.007 .756 .519
Within Groups 435.367 327 1.331
Total 438.387 330
Between Groups .887 3 .296 .314 .815
Within Groups 308.014 327 .942
Total 308.900 330
Between Groups 8.502 3 2.834 2.517 .058
Within Groups 368.229 327 1.126
Total 376.731 330
Between Groups 4.318 3 1.439 1.513 .211
Within Groups 310.963 327 .951
Total 315.281 330
Between Groups 5.509 3 1.836 2.565 .055
Within Groups 234.099 327 .716
Total 239.607 330
ICT makes it more difficult to control the
class
ICT often prevent teaching because of
interruption in work or in software
ICT has given me more confidence to
extend my use of computer to other topics
ICT decreases students‟ motivation
ICT improves the presentation of material in
my lessons
ICT makes preparing lessons quicker
ICT limits the content of my lessons
ICT makes preparing lessons more difficult
ICT makes the lessons more fun for the
students
ICT makes my lessons more diverse
I find it easy to think of ways to use
computer in my teaching
ICT makes teaching more interesting for me
ICT makes teaching more difficult
120
The impact of ICT use, and perhaps most importantly off all given the perceptive impact
on pedagogy, is shown in Table 5.17. Whilst patterns in the data, show that there are
differences across subjects, the significance of the variations is not valid, given all p values
are greater than or equal to 0.05.
Table 5.17: Teachers’ Perception of the Impact of ICT use in the Classroom, by
Subject
Math Arabic Science English Total
Mean N Mean N Mean N Mean N Mean N
ICT enhances my role as a teacher 3.76 82 3.86 79 3.79 90 3.93 80 3.83 331
ICT makes me feel more professional 3.56 82 3.65 79 3.78 90 3.83 80 3.70 331
ICT positively changes the learning
climate in my classroom
3.68 82 3.92 79 3.82 90 4.06 80 3.87 331
ICT positively changes the
relationship between me and my
students
3.61 82 3.80 79 3.73 90 3.96 80 3.77 331
ICT positively changes the usual
relationship between students in my
classroom
3.50 82 3.66 79 3.59 90 3.70 80 3.61 331
Table 5.18: ANOVA Test results for Teachers’ Perception of the Impact of ICT use in
the Classroom, by Subject
Sum of
Squares df
Mean
Square F Sig.
ICT enhances my role as a teacher Between Groups 1.396 3 .465 .530 .662
Within Groups 287.129 327 .878
Total 288.526 330
ICT makes me feel more professional Between Groups 3.608 3 1.203 1.113 .344
Within Groups 353.377 327 1.081
Total 356.985 330
ICT positively changes the learning
climate in my classroom
Between Groups 6.270 3 2.090 2.637 .050
Within Groups 259.143 327 .792
Total 265.414 330
ICT positively changes the
relationship between me and my
students
Between Groups 5.247 3 1.749 2.052 .107
Within Groups 278.759 327 .852
Total 284.006 330
ICT positively changes the usual
relationship between students in my
classroom
Between Groups 1.864 3 .621 .734 .532
Within Groups 276.861 327 .847
Total 278.725 330
121
5.6 Examining the Independent Variables
It is useful to also consider the relationship between the independent variables and the
overall measures of confidence, use and perception of ICT that was considered in Section
5.4. Here, again the means of the overall sections within the questionnaire are summed to
form overall measures. The research considers three of the independent variables – sector,
the gender of the teacher and the subject specialism of which they teach. These have been
selected on the basis that the first two are typically issues within Kuwait, and the final one
forms part of the research question. We would begin with the null hypothesis that any of
the difference in the means of the dependent variables is explained by the independent
variable. The independent variables are defined as ‘teacher confidence mean’, ‘teacher
usage mean’ and ‘teacher impact mean’ which are representative of three of the major
sections within the questionnaire.
5.6.1 Comparison by Sector
We first can consider the output by sector, where Table 5.19 shows us that the means for
public sector employees is higher (i.e. more confident, higher uses and a greater belief in
the impact of ICT).
Table 5.19: Public and Private Teachers’ Use, Confidence and Belief in ICT
Performing a T-test shows us that for ‘usage’ there is a significant difference in the means,
that can be explained by the sector variable, p =0.01. In terms of ‘confidence’ at a 95%
confidence level it is not significant, with the p value of 0.015. However, under a Mann-
Whitney test (see Table 5.21) the results are different, with a rejection of the null
Group Statistics
SECTOR N Mean Std. Deviation Std. Error Mean
teacherconfidencemean public 212 3.7901 .84280 .05788
private 119 3.5597 .78041 .07154
teacherusagemean public 212 2.3777 .81253 .05580
private 119 2.0499 .84574 .07753
teacherimpactmean public 212 3.7821 .82074 .05637
private 119 3.7143 .83628 .07666
122
hypothesis for both the ‘usage’ and ‘confidence’ combined variables. To establish whether
the T-test or the Mann-Whitney test is more appropriate, the data can be analysed to see if
it is normally distributed. A Shapiro-Wilk p result of 0.000 shows that the data is not
normally distributed, and therefore the Mann-Whitney test is a more appropriate method of
analysis - and as such we can assume the difference for ‘confidence’ is significant.
Table 5.20: T-Test Output for Sector against Major Sections
Levene's Test for
Equality of Variances
t-test for Equality of Means
F Sig. t df Sig.
(2-tailed)
Mean
Difference
Std.
Error
Difference
95% Confidence
Interval of the Difference
Lower upper
teacherconfidencemean
Equal variances
assumed .224 .636 2.450 329 .015 .23043 .09404 .04544 .41542
Equal variances not
assumed
2.504 260.608 .013 .23043 .09202 .04922 .41164
teacherusagemean
Equal variances
assumed 1.707 .192 3.471 329 .001 .32781 .09445 .14201 .51362
Equal variances not
assumed
3.432 236.452 .001 .32781 .09552 .13963 .51600
Teacherimpactmean
Equal variances
assumed .883 .348 .716 329 .474 .06779 .09465 -.11841- .25399
Equal variances not
assumed
.712 240.732 .477 .06779 .09515 -.11965- .25523
Table 5.21: Mann-Whitney Output for Sector against Major Sections
Table 5.22: Shapiro-Wilk Normality Test for Teacher Confidence
Statistic Df Sig.
TeacherConfidencemean 0.946 331 .000
123
5.6.2 Comparison by Gender
Historically me wight expect to see higher results for male professionals than females. The
output shown in Table 5.23 would suggest that this is the case.
Table 5.23: Male and Female Teachers’ Use, Confidence and Belief in ICT
To examine for significance, once more T-tests and Mann-Whitney tests were performed.
The T-test results show that for both ‘confidence’ and ‘impact’ the difference in means was
siginifciant. However, for ‘usage’ this difference was not significant’.
Table 5.24: T-Test Output for Gender against Major Sections
Independent Samples Test
Levene's Test for Equality of Variances
t-test for Equality of Means
F Sig. t df Sig. (2-tailed)
Mean Difference
Std. Error Difference
95% Confidence Interval of the
Difference
Lower Upper
Teacher confidence mean
Equal variances assumed
6.755 .010 3.837 329 .000 .34189 .08910 .16661 .51717
Equal variances not assumed
3.830 313.303 .000 .34189 .08927 .16625 .51753
Teacher usage mean
Equal variances assumed
1.799 .181 2.352 329 .019 .21525 .09153 .03519 .39530
Equal variances not assumed
2.351 327.624 .019 .21525 .09157 .03511 .39538
Teacher impact mean
Equal variances assumed
3.076 .080 2.944 329 .003 .26423 .08974 .08770 .44077
Equal variances not assumed
2.942 324.960 .003 .26423 .08982 .08754 .44093
However, the Mann-Whitney output suggests that we can reject the null hypothesis, and
that indeed the differences in means for all three sections are significant. Again, performing
the Shapiro-Wilk normality test shows us that, with a p value of .000 we can reject the null
hypothesis that the data is normally distributed, and use the Mann-Whitney results,
Group Statistics
sex N Mean Std. Deviation Std. Error Mean
teacherconfidencemean MALE 167 3.8766 .72286 .05594
FEMALE 164 3.5348 .89091 .06957
teacherusagemean MALE 167 2.3665 .81311 .06292
FEMALE 164 2.1512 .85196 .06653
teacherimpactmean MALE 167 3.8886 .77758 .06017
FEMALE 164 3.6244 .85394 .06668
124
suggested that the difference in means for all sections are significant, with men scoring
more highly than women.
Table 5.25: Mann-Whitney Output for Gender against Major Sections
Table 5.26: Shapiro-Wilk Normality Test for Teacher Usage
Statistic Df Sig.
Teacherusagemean 0.938 331 .000
5.6.3 Comparison by Subject
Comparing by subject, as already considered at an individual question level, allows us to
contribute to the answering of one of the research questions, namely does ‘Does this
(teachers’) confidence and application vary between subjects?’ The outputs for the means
in three main sections are shown in Table 5.27.
125
Table 5.27: Use, Confidence and Belief in ICT by Teachers’ subject
Report
specialization Teacher confidence mean Teacher usage mean Teacher impact mean
Math
Mean 3.5451 1.9341 3.6220
N 82 82 82
Std. Deviation .78774 .83645 .71112
Arabic
Mean 3.5734 2.2734 3.7772
N 79 79 79
Std. Deviation 1.06443 .82900 .95380
Science
Mean 3.8328 2.4770 3.7422
N 90 90 90
Std. Deviation .66776 .75325 .84654
English
Mean 3.8644 2.3358 3.8950
N 80 80 80
Std. Deviation .71601 .85464 .76504
Total
Mean 3.7073 2.2598 3.7577
N 331 331 331
Std. Deviation .82717 .83828 .82574
Here the results show that broadly science and English teachers rated highest across the
four subjects, with teachers of mathematics rated lowest. As there is more than one variable
in this case, an ANOVA test for significance was applied. This shows us that the statistical
significance is in ‘usage’, with the other two difference having p values greater than the
confidence level of 95%, which is consistent with the prior analysis at question level.
Table 5.28: ANOVA Output for Subjects
ANOVA
Sum of Squares df Mean Square F Sig.
teacherusagemean
Between Groups 13.421 3 4.474 6.696 .000
Within Groups 218.475 327 .668
Total 231.896 330
teacherconfidencemean
Between Groups 6.964 3 2.321 3.469 .016
Within Groups 218.824 327 .669
Total 225.788 330
teacherimpactmean
Between Groups 3.071 3 1.024 1.508 .212
Within Groups 221.937 327 .679
Total 225.008 330
126
5.7 Study results from the perspective of students or results related to students
5.7.1 Overview
The use of ICT at school by students can be a reflection of the skills they possess in ICT
use or the use of ICT applications. Alternatively, it can either reveal how far teachers
promote the use of ICT to students, or indeed to what extent ICT facilities are available
within schools in terms of devices, applications, laboratories, etc. In order to determine the
level of using information technology among students within school arithmetic means,
standard deviations, rank, mode, frequencies, and percentages regarding the usage of
information technology as shown in Table 5.18.
This equation is used to organise and summarise data to provide a simple indication of the
level of the means associated with each response. Marwan (2000) used a similar equation
to group his results. Using these intervals of 1.33, we can define 3.67 to 5.00 as a „high‟
response, 2.34 to 3.67 as a „medium‟ response and any value below 2.34 as a „low
response‟. In the analysis, the researcher also uses a value of „1‟ to differentiate between
high (or divergent) and low (or convergent) levels of standard deviation.
Response level Scales value
owL 0 to 1.66
medium‟ 1.67 to 3.33
high‟ 3.34 to 5
127
Table 5.29: Student Use of ICT at School
No.
How often do you use ICT
at school for completing
these tasks?
Mean Standard
Deviation Rank Mode
Percentage
Level of
agreement
Nev
er
Less th
an
on
ce
a m
on
th
At lea
st on
ce a
mo
nth
Ab
ou
t o
nce
a
week
Tw
o
to
three
times a
wee
k
Ev
ery
da
y
1 5 5 1 1 1
8 I design websites 2.66 2.040 1 1 28.2 9.4 3.9 13.6 16.2 28.6 Medium
18 I browse the Internet for fun 2.42 2.113 2 1 34.7 8.1 6.8 10.1 11.4 28.9 Medium
7 I use computer for writing 2.32 1.873 3 1 29.5 8.8 11.4 17.5 15.9 16.9 Medium
10 I download music files or
software from the Web 2.21 2.110
4 1 39.3 9.1 5.2 8.4 13.6 24.4
Medium
11 I send and receive emails 2.15 2.035 5 1 39.0 7.8 7.5 10.7 14.9 20.1 Medium
19 I play games on the computer
2.15 2.007
5 1 37.0 10.4 6.5 13.3 12.7 20.1
Medium
4 I use / create pictures and
animations 2.08 1.716
6 1 29.2 14.0 7.8 26.6 13.0 9.4
Medium
5 I watch DVDs/videos on the
computer 1.94 1.908
7 1 38.0 14.3 5.8 14.0 13.6 14.3
Medium
14 I watch TV/listen to
radio/music on the Internet 1.54 1.886
8 1 51.9 8.8 7.5 8.8 11.4 11.7
low
9 I program the computer 1.45 1.678 9 1 45.8 14.3 12.3 13.0 6.2 8.4 low
2 I use educational software to
learn some lessons 1.35 1.525
10 1 47.1 13.3 9.4 21.4 5.5 3.2
low
15 I use the Internet to revise for
exams 1.27 1.570
11 1 50.6 14.0 8.8 14.6 8.1 3.9
low
6
I make/design things on the
computer (like posters,
invites)
1.24 1.569
12
1 49.4 17.2 11.7 9.7 5.8 6.2
low
20 I shop on the Internet 1.24 1.706 12 1 57.8 8.8 8.4 9.1 8.8 7.1 low
1
I look up for information on
hard disk and compact discs (
CD ROMs )
.96 1.346
13 1
57.8 14.3 9.7 12.3 4.2 1.6
low
16 I create/record sound files on
the computer .93 1.542
14 1 65.9 10.4 5.2 6.8 6.8 4.9
low
12
I organise the computer
settings such as
files/memory/system
.92 1.336
15
1 59.1 13.6 12.3 9.1 3.2 2.6
low
3 I use some spreadsheets .87 1.351 16 1 61.7 14.0 8.8 9.1 3.9 2.6 low
13 I use the Internet to look up
information .78 1.298
17 1 65.9 12.7 6.5 10.4 1.9 2.6
low
17 I make films/animations on
the computer .76 1.464
18 1 73.4 6.2 5.5 5.2 5.2 4.5
low
TOTAL 1.56 1.023 - - - - - - - low
128
It's notable from Table 5.29 that the level of using ICT by students at school is low, where
the overall arithmetic mean reached 1.56 with a standard deviation of 1.023. However, on
an individual basis the variance of the responses is high. The results also indicated that the
highest level for use related to the use of students in „Designing Web sites‟ where the
arithmetic mean was 2.66 with a standard deviation of 2.040 which highlights a great
disparity amongst respondents.
The modal value of 5 indicates the highest response rate was „Every day‟, where the
percentage of students who responded so was 28.6%. The large disparity among the
responses of students is due to the fact that 28.2% of them responded with „Never‟.
Secondly, respondents rated „Using the Internet through browsing for fun‟ where the
arithmetic mean was 2.42 and standard deviation of 2.113 which again refers to a great
disparity about this use. The modal value of 0 indicates that the highest response was
„Never‟, where the percentage of students who responded so was 34.7%.
The lowest level among students related to „using ICT in producing films‟ where the
arithmetic mean was 0.76 with standard deviation of 1.464 which highlights a disparity
amongst respondents. The modal value of 0 indicates the highest response rate was
'Never', where the percentage of students who responded so was 73.4%. Additionally,
students do not appear to be using the Internet to look for information where the arithmetic
mean was 0.78 with standard deviation of 1.298 – which highlights a slightly lesser
disparity amongst respondents. The mode was 0 which indicates that the highest response
was 'Never', where the percentage of students who responded so was 65.9%.
5.7.2 Using ICT at Home
The use ICT at home by students reflects to what extent they possess the skills of ICT and
its applications and can apply them in everyday use. In order to determine the level of
using ICT by students at home, the arithmetic means, standard deviations, rank, mode,
frequencies and percentages for skills in using ICT and its applications were calculated as
shown in Table 5.30.
129
Table 5.30: Student Use of ICT at Home
No
.
How often do you use
ICT at home for
completing these tasks?
Mean Standard
Deviation Rank Mode
Percentage
Level of
agreement
Nev
er
Less th
an
on
ce a
mo
nth
At
least
on
ce a
mo
nth
Ab
ou
t o
nce
a
week
Tw
o
to
three
times a
week
Ev
ery d
ay
1 5 5 1 1 1
3 I browse the Internet
for fun 3.51 1.726 5 5 10.7 6.5 8.4 13.6 16.9 43.8 high
11 I download music files
or software from the
Web 3.27 1.868
5 5 15.3 7.5 8.8 13.0 14.3 41.2
Medium
13 I design websites
3.19 1.719 1 5 10.7 9.7 12.7 16.9 16.6 33.4 Medium
2 I play games on the computer
3.17 1.756 1 5 12.0 10.7 10.1 15.6 19.2 32.5 Medium
10 I send and receive
emails 2.98 1.808 1 5 15.6 10.4 10.1 17.5 17.2 29.2 Medium
14 I use computer for
writing 2.79 1.840 6 5 17.5 12.7 11.4 17.2 14.3 26.9 Medium
16 I watch DVDs/videos
on the computer 2.74 1.779
1 3 19.2 9.4 8.8 25.6 14.9 22.1
Medium
7 I watch TV/listen to
radio/music on the
Internet 2.34 1.947
8 0 30.5 10.1 10.4 12.0 17.5 19.5
Medium
17 I use / create pictures and animations
2.24 1.853 9 0 28.6 13.0 10.1 20.8 9.7 17.9 Medium
12 I program the
computer 2.12 1.812 51 0 28.9 15.9 10.4 19.5 10.1 15.3
Medium
6 I use the Internet to revise for exams
1.88 1.774 55 0 34.4 15.3 11.7 16.9 10.1 11.7 Medium
1 I shop on the Internet 1.61 1.744 55 0 41.2 15.3 14.6 8.8 10.4 9.7 low
20
I look up for
information on hard disk and compact discs
( CD ROMs )
1.61 1.715
55
0 40.3 16.9 11.4 13.6 8.8 9.1
low
15 I make/design things on the computer (like
posters, invites) 1.59 1.641
51 0 38.6 17.9 11.4 16.2 9.4 6.5
low
19 I use educational
software to learn some lessons
1.54 1.580 51
0 40.3 15.3 11.4 21.1 7.1 4.9 low
5 I create/record sound
files on the computer 1.47 1.749 51 0 48.7 11.7 8.8 14.3 7.5 9.1 low
18 I use some
spreadsheets 1.34 1.678 56 0 50.0 15.3 7.5 14.0 4.9 8.4 low
4 I make
films/animations on the computer
1.32 1.692 51
0 51.6 13.0 9.7 12.0 4.5 9.1 low
9
I organise the
computer settings such
as files/memory/system
1.25 1.530
58
0 49.0 14.9 12.3 14.3 4.2 5.2
low
8 I use the Internet to
look up information 1.05 1.526 59 0 58.1 13.6 8.1 10.7 3.9 5.5 low
TOTAL 2.15 .960 - - - - - - - low
It's notable from Table 5.30 that the level of students' use for ICT and its applications is
low, where the arithmetic mean was 5.19 with standard deviation of 0.960, implying less
variation than the student use at school. The results also show that the highest level of use
130
among students was for „using the Internet through browsing for fun‟, where the arithmetic
mean was 3.51 and standard deviation 1.726, which highlights a disparity among the
students. The modal value of 5 indicates the highest response rate that was „Every Day‟,
where the percentage of students who responded so was 43.8%. The second aspect was
„using internet by students to download music files or programs‟ where the arithmetic
mean was 3.27 with standard deviation of 1.868 - highlighting divergence around that
aspect. The mode was 5, indicating that the highest response was 'Every day', where the
percentage of respondents was 41.2%.
The lowest ranked ICT feature was the „use of Internet looking up information‟ where the
arithmetic mean was 1.05 and standard deviation 1.526, which highlights divergence
amongst respondents. The modal value of 0 indicates the highest response was 'Never',
where the percentage response rate was 58.1%.
Another low rated feature was „the use of organising the computer's settings such as files,
memory, and system‟ where the arithmetic average was 1.25 and standard deviation 1.530
which highlights a divergence amongst respondents. The mode was 0, which indicates that
the highest response was „Never‟, where the percentage response rate was 49%.
In relation to the purpose of using ICT and its applications by students at home, the results
appear in Table 5.31. These results indicate that more common reason was fun‟ where the
arithmetic mean was 3.79 with standard deviation of 1.507 which highlights a disparity
amongst respondents, the modal value of 5 indicates the highest response was „Every day‟,
where the percentage of students who responded so was 46.1%.
In comparison, the least popular reason was for „completing homework‟ where the
arithmetic mean was 2.59 with standard deviation of 1.631 which highlights a divergence
in this response. The mode was 3 which indicates that the highest response was „Once a
week‟, where the percentage response rate was 25.6%. The „other applications‟ had an
arithmetic mean equal to 2.70 with standard deviation of 1.729 - which highlights a great
131
divergence about this use. The mode was 5 which indicate that the highest response was
'Every day', where the percentage of students who responded was 20.5%.
Table 5.31: Using ICT at Home - Frequency
No.
How often
do you use
ICT at
home for
completing
these
tasks?
Mean
Standar
d
Deviatio
n
Rank Mode
Percentage
Level of
agreement
Nev
er
Less th
an
on
ce a
mo
nth
At
least
on
ce a
mo
nth
Ab
ou
t o
nce
a
week
Tw
o
to
three
times a
week
Ev
ery d
ay
1 5 5 1 1 1
1 For fun 3.79 1.507 1 1 5.8 6.8 3.2 16.9 21.1 46.1 hige
2 For school
homework 2.59 1.631
2 1 17.9 9.7 13.0 25.6 22.1 11.7
Medium
3
Other works
(helping my
family,
purchasing,
etc...)
2.70 1.729
3
1 15.6 13.3 14.3 19.2 17.2 20.5
Medium
TOTAL 3.03 1.214 - - - - - - - - Medium
Figure 5.2: Using ICT at Home - Frequency
5.7.3 Viewpoints of students regarding using ICT in the teaching/learning process
Recognising the viewpoints of students towards the use of ICT in the learning process is
regarded as the main driver to increase their motivation towards learning. In order to
For fun
For school homework
other works
0
0.5
1
1.5
2
2.5
3
3.5
4
1 2 3
Me
an
Item (How often do you use ICT at home for completing these tasks?)
132
identify the viewpoints of students towards the use of ICT in teaching, the arithmetic
means, standard deviations, rank, mode, frequencies and percentages for skills in using
ICT and its applications were calculated as shown in Table 5.32. Here, students were
invited to agree or disagree with a series of statements about the impact of using ICT on
the teaching and learning processes.
Table 5.32: Student Perceptions of ICT
No.
To what extent do you
agree or disagree with
the following
statements:
Mean Standard
Deviation Rank Mode
Percentage
Level of
agreement
Stro
ng
ly d
isag
ree
Disa
gree
Un
decid
ed
Ag
ree
Stro
ng
ly a
gree
1 5 1 1 1
1 I enjoy lessons with a
computer 3.95 1.135
1 5 5.8 5.8 14.3 35.7 38.3
High
2
I feel comfortable
working with
computers
3.82 1.118
2
4 5.2 7.1 20.5 35.1 32.1
High
6 ICT is very helpful in
my learning process 3.81 1.190
3 5 7.1 7.1 17.2 34.1 34.4
High
3
I believe that the more
often teachers use
computers, the more I
will enjoy school
3.80 1.219
4
5 7.5 7.1 20.1 28.9 36.4
High
5
I have better
information sources
than ICT
2.88 1.302
5
3 19.8 18.2 29.9 18.5 13.6
Medium
11
I know how to use ICT
but am not interested in
using it to learn
2.85 1.296
6
2 17.2 27.6 21.8 20.1 13.3
Medium
10
I find it time-
consuming using ICT
in learning
2.63 1.377
7
1 28.6 20.5 24.0 13.3 13.6
Medium
8
I need help from
teachers to learn with
ICT
2.59 1.307
8
1 26.6 24.7 21.1 18.2 9.4
Medium
12
Working with
computers makes me
nervous
2.33 1.233
9
2 30.5 30.8 22.1 7.8 8.8
low
4 I am tired of using a
computer 2.30 1.203
10 1 31.5 30.5 22.1 8.8 7.1
low
13 I wish ICT was not
used in teaching 2.18 1.412
11 1 47.7 18.5 13.6 8.1 12.0
low
9 Computers are difficult
to use 2.03 1.250
12 1 46.8 26.0 13.0 6.5 7.8
low
7 Computers scare me 1.99 1.263 13 1 52.9 16.9 14.6 9.7 5.8 low
TOTAL 2.86 .572 - - - - - - - Medium
133
Table 5.32 shows us that students were broadly in agreement with the positive statements
about the impact of ICT, and disagree with the negative statements. For instance, students
agreed with the statement „I enjoy lessons with a computer‟ – which had an arithmetic
mean of 3.95 and standard deviation of 1.135 - which highlights a weak divergence among
students towards this viewpoint. The mode was 5 which indicate that the highest response
was „Strongly Agree‟, where the percentage response rate was 38.3%.
Secondly, with regard to the statement „I feel comfortable working with computers‟ the
arithmetic mean of responses was 3.82 with standard deviation of 1.118 - which highlights
a divergence among students from this viewpoint. The mode was 4 which indicate that the
highest response was „Agree‟ where the percentage response rate was 35.1%.
The agreements were for the negative statements. „Computers scare me‟ had an arithmetic
mean equal to 1.99 and standard deviation of 1.263, which highlights a divergence among
students towards this viewpoint. The mode was 1, which indicates that the highest
response was „Strongly Disagree‟ where the percentage response rate was 52.9%.
Similarly the statement „Computers are difficult to use‟ had an arithmetic mean of 2.03
with standard deviation of 1.250, which again highlights a divergence among students from
this viewpoint. The mode was 1 which indicates that the highest response was 'strongly
disagree' where the percentage response rate was 46.8%.
With regards to the effect of using ICT on students' achievement and their learning
experiences from the viewpoints of students, the results shown in Table 5.33 indicates that
the students believe there is a simple impact with an arithmetic mean of 2.00 and a modal
value of 2 or „Simple Impact‟.
134
Table 5.33: Students Opinions about using ICT in the teaching/learning process
Mean Standard
Deviation
Mode Percentage Level of
agreement
No
imp
act
Sm
all
Sig
nifican
t
imp
act
1 5 1
To what extent has the use of
ICT at school (you and your
teachers ' use) impacted
your learning experiences?
2 .764 2 28.9 41.9 28.9 Simple
Figure 5.3: Students Opinions about using ICT in the teaching/learning process.
5.7.4 Students’ Confidence in ICT Use
Students‟ confidence in their ICT abilities is a good indicator of the skills they have in
various aspects of ICT and its application. The learning process depends on the interaction
between the teacher and the learner and as such, the impact of ICT use depends on the
abilities of the student to successfully understand and utilise the variety of functionality
offered by different forms of ICT. Students were invited, similar to teachers, to assess their
ICT ability against a range of aspects of ICT and ICT applications. In order to determine
the level of ICT use among students, arithmetic means, standard deviations, rank, mode,
frequencies, and percentages regarding ICT skills and its applications were calculated.
Table 5.34 shows the results.
135
No. How would you rate your confidence level in
terms of the following computer skills or
applications?
Mean Std
Deviation
Rank Mode Percentage (% Level of
confidence
Very unconfident Not
confident
Unsure Confident Very
confident
1 2 3 4 5
15 Searching for information on the Internet 4.37 1.089 1 5 4.9 1.9 12.3 12.7 68.2 High
14 Internet browsing 4.36 1.105 2 5 4.2 4.2 11.4 12 68.2 High
16 Downloading files from the Internet 4.33 1.107 3 5 4.5 3.6 12 14 65.9 High
2 Managing files (delete, move to … etc.) 4.3 1.117 4 5 3.6 6.2 11.7 13.6 64.9 High
17 Using Email ( reading and sending mails) 4.28 1.175 5 5 5.8 3.6 13 12.3 65.3 High
1 Basics of operating PC (using keyboard, mouse …
etc.)
4.22 1.317 6 5 10.1 2.6 9.7 10.7 66.9 High
3 Using word processor ( such as word program ) 4.22 1.114 6 5 5.2 1.9 16.2 18.8 57.8 High
12 Deleting or editing pictures, animations or movies 4.16 1.131 7 5 4.5 5.2 14.3 22.1 53.9 High
18 Using chat rooms and forums (Facebook, Twitter) 4.11 1.238 8 5 6.2 6.5 14.9 14.9 57.5 High
9 Searching for saved data on hard disk or compact
disk
4 1.208 9 5 6.8 4.9 17.2 23.7 47.4 High
4 Use spreadsheet processor (such as excel program ) 3.95 1.157 10 5 4.5 7.5 19.8 25 43.2 High
13 Using digital camera 3.92 1.278 11 5 8.1 6.2 18.8 19.8 47.1 High
7 Combining files from different resources ( sound or
video files ) to create presentations
3.9 1.185 12 5 5.5 7.1 20.8 24.7 41.9 High
6 Create and design presentations 3.83 1.164 13 5 4.5 10.1 20.1 28.6 36.7 High
5 Creating or Using data base processor (such as access
program)
3.69 1.152 14 5 4.2 10.4 29.5 23.4 32.5 High
11 Using different designing programs (Photoshop,
Flash)
3.66 1.262 15 5 7.5 12.7 19.5 27.3 33.1 High
10 Using data show basis on PC as projection tool 3.42 1.244 16 3 7.5 14.9 33.1 16.9 27.6 High
20 Designing web page or personal site 3.37 1.243 17 3 8.8 15.6 28.6 23.7 23.4 High
19 Publishing a personal blog 3.36 1.268 18 3 10.4 12 33.8 18.5 25.3 High
8 Producing learning software 3.12 1.122 19 3 6.5 23.4 36.4 19.2 14.6 High
TOTAL 3.91 0.867 - - - - - - - High
Table 5.34: ICT Confidence Levels amongst Students
136
It's notable from Table 5.34 that the level of students' use for ICT and its applications is
high, where arithmetic mean was 3.91 with standard deviation of 0.867. Since the standard
deviation is relatively low which equals less than integer one, this refers to a convergence
among students towards this high level. The results also indicated that the highest level for
students related to „searching for information on the Internet‟ where the arithmetic mean
was 4.37 with standard deviation of 1.089. The modal value of 5 indicates the highest
response was „Very confident‟, where the percentage response rate was 68.2%. Secondly
came the students confidence in „browsing the Internet‟, where the arithmetic mean was
4.36 with standard deviation of 1.105 which highlights a slight divergence among
responses. The mode was 5 which indicates that the highest response was „Very
confident‟, where the percentage response rate was 68.2%.
The least confident responses included „designing of educational programs‟ where the
arithmetic mean was 3.12 and the standard deviation 1.122 - which highlights a divergence in
the responses. The modal value of 3 indicates the highest response was „Unsure‟ where the
percentage response rate was 36.4%. Similarly, „publishing personal blogs by students‟ where
the arithmetic mean was 3.36 and the standard deviation of 1.268 highlighted a divergence
amongst the responses. The mode was 3 which indicate that the highest response was
„Unsure‟, where the percentage response rate was 33.8%.
5.7.5 Comparison levels between teachers and students in ICT Use
The data in Table 5.35 indicates that some variations regarding the levels of using ICT can
be seen among both teachers and students. The highest level among teachers related to
"Basics of operating a PC" where the arithmetic mean amounted to 4.59 while the lowest
level related to "Designing web page or personal site" with an arithmetic mean amounted
to 2.69. From another hand, the highest level among students related to „Searching for
information on the Internet‟ where the arithmetic mean amounted to 4.37 while the lowest
level related to “Producing learning software" with arithmetic mean amounted to 3.12.
Furthermore, the highest variance between the teachers and students' means related to
‟Creating or Using data base processor‟ where the arithmetic means for teachers and
students were 3.09 and 3.69 respectively while lowest variance between them related to
137
„Using word processor‟ where the arithmetic means for teachers and students were 4.23
and 4.22 respectively.
Table 5.35: Comparison between teachers and students in ICT confidence Level
No. ICT use level Teachers students
1 Basics of operating PC (using keyboard, mouse … etc.) 4.59 4.22
2 Managing files (delete, move to, … etc.) 4.44 4.3
3 Searching for information on the Internet 4.3 4.37
4 Internet browsing 4.25 4.36
5 Using word processor ( such as word program ) 4.23 4.22
6 Searching for saved data on hard disk or compact disk 4.13 4
7 Downloading files from the Internet 4.11 4.33
8 Using Email ( reading and sending mails) 4.08 4.28
9 Using data show basis on PC as projection tool 3.74 3.42
10 Deleting or editing pictures, animations or movies 3.6 4.16
11 Using chat rooms and forums (Facebook, Twitter) 3.6 4.11
12 Combining files from different resources (sound or video files ) to create
presentations
3.59 3.9
13 Using digital camera 3.53 3.92
14 Use spreadsheet processor (such as excel program ) 3.5 3.95
15 Producing learning software 3.2 3.12
16 Creating or Using data base processor (such as access program) 3.09 3.69
17 Publishing a personal blog 2.84 3.36
18 Using different designing programs (Photoshop, Flash) 2.78 3.66
19 Designing web page or personal site 2.69 3.37
Figure 5.4: Comparison between teachers and students in ICT confidence Level
0
0.5
1
1.5
2
2.5
3
3.5
4
4.5
5
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19
Me
an
Item of comparison (level of ICT usage among teachers and students)
Teachers
Students
138
5.7.6 Analysing the Student Responses by Sector
One of the key questions in the research is to analyse the „Are there any differences between
students teaching and learning in public schools and private schools in terms of their exposure
to, and use of ICT in the classroom?‟. For this purpose, the research now analyses the results of
the student questionnaire, broken down into public and private schools in Kuwait.
Here, we apply a T-test to examine significance, and the results are displayed against each
associated „major‟ section of the questionnaire. The T-test is adopted as the independent
variable in question has only two possible values (private or public sector).
The first elements of the questionnaire that students were invited to complete required them to
describe the level of their ICT use in school, against a number of specific activities. The results
shown below in Table 5.37 and the associated Figure 5.5 show a significantly greater level of
ICT use for public school children than for private school children. For example, in areas such
as „I design websites‟ where the mean response for public school children is 2.93 and 1.98 for
private school children.
Table 5.36: Students’ ICT use in School, by sector
public Private Total
Mean N Mean N Mean N
I look up for information on hard disk and compact discs ( CD
ROMs )
.98 221 .91 87 .96 308
I use educational software to learn some lessons 1.36 221 1.32 87 1.35 308
I use some spreadsheets .95 221 .69 87 .87 308
I use / create pictures and animations 2.22 221 1.75 87 2.08 308
I watch DVDs/videos on the computer 2.29 221 1.05 87 1.94 308
I make/design things on the computer (like posters, invites) 1.43 221 .77 87 1.24 308
I use computer for writing 2.39 221 2.14 87 2.32 308
I design websites 2.93 221 1.98 87 2.66 308
I program the computer 1.61 221 1.05 87 1.45 308
I download music files or software from the Web 2.52 221 1.43 87 2.21 308
I send and receive emails 2.47 221 1.34 87 2.15 308
I organize the computer settings such as files/memory/system 1.00 221 .70 87 .92 308
I use the Internet to look up information .90 221 .45 87 .78 308
I watch TV/listen to radio/music on the Internet 1.79 221 .91 87 1.54 308
I use the Internet to revise for exams 1.48 221 .74 87 1.27 308
I create/record sound files on the computer 1.07 221 .57 87 .93 308
I make films/animations on the computer .95 221 .30 87 .76 308
I browse the Internet for fun 2.70 221 1.71 87 2.42 308
I play games on the computer 2.38 221 1.54 87 2.15 308
I shop on the Internet 1.53 221 .49 87 1.24 308
139
The above example is significant, as shown the T-test statistic in Table 5.37. Here, we can see
that the majority of the variances in the means are significant, given the Sig (two-tailed) or T-
test results are less than the confidence level of 0.05.
Figure 5.5: Students’ ICT use in School, by sector
Figure 5.5 shows the „gap‟ between use in public and private schools – in every single element
of the questionnaire responses. The most significant gaps are for items such as „I download
music files or software from the Web‟ and „I send and receive emails‟.
.00
.50
1.00
1.50
2.00
2.50
3.00
3.50
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
public school
private school
140
Table 5.37: T-test for Students’ ICT use in School, by sector
Lower Upper
Equal variances
assumed
.839 .360 .406 306 .685 .069 .171 -.266 .405
Equal variances not
assumed
.424 172.607 .672 .069 .164 -.253 .392
Equal variances
assumed
1.126 .289 .184 306 .854 .036 .193 -.345 .416
Equal variances not
assumed
.185 158.294 .854 .036 .193 -.345 .416
Equal variances
assumed
2.441 .119 1.501 306 .134 .256 .171 -.080 .592
Equal variances not
assumed
1.595 180.007 .112 .256 .160 -.061 .573
Equal variances
assumed
.634 .426 2.178 306 .030 .470 .216 .045 .895
Equal variances not
assumed
2.166 155.825 .032 .470 .217 .041 .899
Equal variances
assumed
8.286 .004 5.378 306 .000 1.244 .231 .789 1.699
Equal variances not
assumed
5.591 171.105 .000 1.244 .222 .805 1.683
Equal variances
assumed
7.607 .006 3.353 306 .001 .655 .195 .271 1.040
Equal variances not
assumed
3.581 181.916 .000 .655 .183 .294 1.016
Equal variances
assumed
3.651 .057 1.079 306 .281 .256 .237 -.211 .722
Equal variances not
assumed
1.041 146.680 .300 .256 .246 -.230 .741
Equal variances
assumed
7.285 .007 3.760 306 .000 .951 .253 .453 1.448
Equal variances not
assumed
3.619 145.979 .000 .951 .263 .432 1.470
Equal variances
assumed
6.981 .009 2.665 306 .008 .560 .210 .147 .974
Equal variances not
assumed
2.827 179.135 .005 .560 .198 .169 .951
Equal variances
assumed
.617 .433 4.210 306 .000 1.095 .260 .583 1.607
Equal variances not
assumed
4.217 158.034 .000 1.095 .260 .582 1.608
Equal variances
assumed
2.286 .132 4.505 306 .000 1.126 .250 .634 1.617
Equal variances not
assumed
4.622 166.262 .000 1.126 .244 .645 1.607
Equal variances
assumed
.736 .392 1.774 306 .077 .299 .168 -.033 .630
Equal variances not
assumed
1.789 160.262 .076 .299 .167 -.031 .629
Equal variances
assumed
20.045 .000 2.810 306 .005 .457 .163 .137 .776
Equal variances not
assumed
3.190 210.583 .002 .457 .143 .174 .739
Equal variances
assumed
11.121 .001 3.761 306 .000 .879 .234 .419 1.339
Equal variances not
assumed
3.973 177.427 .000 .879 .221 .443 1.316
Equal variances
assumed
23.762 .000 3.850 306 .000 .749 .194 .366 1.131
Equal variances not
assumed
4.235 195.080 .000 .749 .177 .400 1.097
Equal variances
assumed
11.628 .001 2.549 306 .011 .493 .194 .112 .874
Equal variances not
assumed
2.775 190.315 .006 .493 .178 .143 .844
Equal variances
assumed
48.181 .000 3.557 306 .000 .647 .182 .289 1.005
Equal variances not
assumed
4.423 262.537 .000 .647 .146 .359 .935
Equal variances
assumed
1.241 .266 3.758 306 .000 .984 .262 .469 1.500
Equal variances not
assumed
3.669 150.130 .000 .984 .268 .454 1.514
Equal variances
assumed
.613 .434 3.380 306 .001 .844 .250 .353 1.336
Equal variances not
assumed
3.409 160.332 .001 .844 .248 .355 1.333
Equal variances
assumed
52.762 .000 4.976 306 .000 1.035 .208 .626 1.445
Equal variances not
assumed
5.755 220.602 .000 1.035 .180 .681 1.390
I browse the Internet for fun
I play games on the computer
I shop on the Internet
I send and receive emails
I organize the computer settings such as
files/memory/system
I use the Internet to look up information
I watch TV/listen to radio/music on the
Internet
I use the Internet to revise for exams
I create/record sound files on the
computer
I make/design things on the computer
(like posters, invites)
I use computer for writing
I design websites
I program the computer
I download music files or software from
the Web
I make films/animations on the
computer
95%
I look up for information on hard disk
and compact discs ( CD ROMs )
I use educational software to learn some
lessons
I use some spreadsheets
I use / create pictures and animations
I watch DVDs/videos on the computer
Levene's t-test for Equality of Means
F Sig. t df Sig. (2-tailed) Mean Difference
Std. Error
Difference
141
Students were then invited to assess their use of the same ICT features at home. Here, we can
see a far more mixed set of results, shown initially in Table 5.38 below. These results are
depicted graphically in Figure 5.6. From the previous analysis, we know that the results here
were broadly higher than those for schools.
Table 5.38: Students’ ICT use at home, by sector
public private Total
Mean N Mean N Mean N
I shop on the Internet 1.75 221 1.26 87 1.61 308
I play games on the computer 3.09 221 3.37 87 3.17 308
I browse the Internet for fun 3.28 221 4.09 87 3.51 308
I make films/animations on the computer 1.40 221 1.13 87 1.32 308
I create/record sound files on the computer 1.48 221 1.45 87 1.47 308
I use the Internet to revise for exams 1.91 221 1.79 87 1.88 308
I watch TV/listen to radio/music on the
Internet
2.35 221 2.32 87 2.34 308
I use the Internet to look up information 1.11 221 .91 87 1.05 308
I organize the computer settings such as
files/memory/system
1.29 221 1.15 87 1.25 308
I send and receive emails 2.74 221 3.60 87 2.98 308
I download music files or software from the
Web
3.01 221 3.94 87 3.27 308
I program the computer 1.96 221 2.52 87 2.12 308
I design websites 3.01 221 3.64 87 3.19 308
I use computer for writing 2.68 221 3.06 87 2.79 308
I make/design things on the computer (like
posters, invites)
1.72 221 1.26 87 1.59 308
I watch DVDs/videos on the computer 2.70 221 2.85 87 2.74 308
I use / create pictures and animations 2.27 221 2.15 87 2.24 308
I use some spreadsheets 1.39 221 1.20 87 1.34 308
I use educational software to learn some
lessons
1.52 221 1.59 87 1.54 308
I look up for information on hard disk and
compact discs ( CD ROMs )
1.46 221 1.99 87 1.61 308
In terms of the breakdown associated with the school sector. Figure 5.6 shows that in a
majority of cases, students from private schools used the aspects of ICT more than those
students in public schools. Notably, in areas such as „I browse the internet for fun‟ and „I send
and receive emails‟ where the gap in the mean averages (4.09 to 3.28 and 3.60 to 2.70) is
widest. The T-test results also display significance against a range of areas – although not all
separate characteristics showed significant variation against the mean, for example, „I play
games on the computer‟ had a sig result (assuming unequal variance) of .178, greater than the
0.05 figure which implies 95% confidence.
142
Figure 5.6: Students’ ICT use at Home, by sector
Table 5.39: T-test for Students’ ICT use at Home, by sector
Lower Upper
Equal variances assumed 9.920 .002 2.199 306 .029 .482 .219 .051 .914
Equal variances not assumed 2.377 187.112 .018 .482 .203 .082 .882
Equal variances assumed 9.366 .002 -1.269 306 .205 -.282 .222 -.719 .155
Equal variances not assumed -1.353 181.206 .178 -.282 .208 -.693 .129
Equal variances assumed 30.059 .000 -3.794 306 .000 -.811 .214 -1.232 -.391
Equal variances not assumed -4.332 213.761 .000 -.811 .187 -1.181 -.442
Equal variances assumed 3.739 .054 1.270 306 .205 .272 .214 -.149 .693
Equal variances not assumed 1.306 167.197 .193 .272 .208 -.139 .682
Equal variances assumed 2.975 .086 .162 306 .872 .036 .222 -.400 .472
Equal variances not assumed .168 171.077 .867 .036 .213 -.385 .457
Equal variances assumed 2.501 .115 .538 306 .591 .121 .225 -.321 .563
Equal variances not assumed .560 171.946 .576 .121 .216 -.305 .547
Equal variances assumed 3.307 .070 .126 306 .900 .031 .247 -.455 .517
Equal variances not assumed .122 147.627 .903 .031 .255 -.473 .535
Equal variances assumed 2.725 .100 1.038 306 .300 .201 .193 -.180 .581
Equal variances not assumed 1.063 165.441 .289 .201 .189 -.172 .573
Equal variances assumed 1.302 .255 .747 306 .456 .145 .194 -.237 .526
Equal variances not assumed .757 161.793 .450 .145 .191 -.233 .522
Equal variances assumed 4.344 .038 -3.841 306 .000 -.860 .224 -1.301 -.420
Equal variances not assumed -4.019 173.563 .000 -.860 .214 -1.283 -.438
Equal variances assumed 16.486 .000 -4.046 306 .000 -.933 .231 -1.387 -.480
Equal variances not assumed -4.424 192.309 .000 -.933 .211 -1.350 -.517
Equal variances assumed .250 .617 -2.453 306 .015 -.558 .227 -1.006 -.110
Equal variances not assumed -2.469 159.691 .015 -.558 .226 -1.004 -.112
Equal variances assumed 1.361 .244 -2.931 306 .004 -.630 .215 -1.053 -.207
Equal variances not assumed -3.054 171.986 .003 -.630 .206 -1.037 -.223
Equal variances assumed .234 .629 -1.611 306 .108 -.374 .232 -.831 .083
Equal variances not assumed -1.586 152.589 .115 -.374 .236 -.840 .092
Equal variances assumed 1.127 .289 2.228 306 .027 .460 .206 .054 .866
Equal variances not assumed 2.257 161.806 .025 .460 .204 .057 .862
Equal variances assumed 2.746 .099 -.682 306 .496 -.154 .225 -.597 .290
Equal variances not assumed -.706 169.328 .481 -.154 .218 -.584 .276
Equal variances assumed 1.269 .261 .520 306 .603 .122 .235 -.340 .584
Equal variances not assumed .531 164.915 .596 .122 .230 -.331 .576
Equal variances assumed .345 .557 .933 306 .352 .198 .212 -.220 .616
Equal variances not assumed .920 153.084 .359 .198 .215 -.227 .624
Equal variances assumed 1.078 .300 -.306 306 .760 -.061 .200 -.455 .333
Equal variances not assumed -.299 149.927 .766 -.061 .205 -.467 .344
Equal variances assumed 1.798 .181 -2.447 306 .015 -.527 .215 -.951 -.103
Equal variances not assumed -2.384 149.426 .018 -.527 .221 -.964 -.090
I use some spreadsheets
I use educational software to learn some
lessons
I look up for information on hard disk
and compact discs ( CD ROMs )
I download music files or software from
the Web
I program the computer
I design websites
I use computer for writing
I make/design things on the computer
(like posters, invites)
I watch DVDs/videos on the computer
I use the Internet to revise for exams
I watch TV/listen to radio/music on the
Internet
I use the Internet to look up information
I organize the computer settings such as
files/memory/system
I send and receive emails
I use / create pictures and animations
95%
I shop on the Internet
I play games on the computer
I browse the Internet for fun
I make films/animations on the
computer
I create/record sound files on the
computer
Levene's t-test for Equality of Means
F Sig. t df Sig. (2-tailed) Mean Difference
Std. Error
Difference
0.00
0.50
1.00
1.50
2.00
2.50
3.00
3.50
4.00
4.50
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Public Schools
Private Schools
143
Students were also invited to give their opinions on the use of ICT in the teaching and learning
process, and were requested to agree/disagree with a series of statements. These are shown in
Table 5.40 below, again broken down by the sector in which they attend school. In this
analysis, where 5=strongly agree, students were posed with several positive and negative
statements. The mean averages shown below and in Figure 5.7 highlight the fact that students
in public education were more likely to disagree with the positive statements (largely at the
start of the question) and agree with the negative, implying that their perception of the use of
ICT in schools is more negative than students from their privately educated counterparts.
Table 5.40: Students’ Perception of Using ICT in Teaching and Learning, by sector
public private Total
Mean N Mean N Mean N
I enjoy lessons with a computer 3.88 221 4.13 87 3.95 308
I feel comfortable working with
computers
3.77 221 3.93 87 3.82 308
I believe that the more often teachers
use computers, the more I will enjoy
school
3.72 221 3.99 87 3.80 308
I am tired of using a computer 2.40 221 2.02 87 2.30 308
I have better information sources than
ICT
2.97 221 2.66 87 2.88 308
ICT is very helpful in my learning
process
3.75 221 3.98 87 3.81 308
Computers scare me 2.14 221 1.60 87 1.99 308
I need help from teachers to learn
with ICT
2.72 221 2.25 87 2.59 308
Computers are difficult to use 2.19 221 1.62 87 2.03 308
I find it time-consuming using ICT in
learning
2.71 221 2.41 87 2.63 308
I know how to use ICT but am not
interested in using it to learn
2.96 221 2.56 87 2.85 308
Working with computers makes me
nervous
2.44 221 2.07 87 2.33 308
I wish ICT was not used in teaching 2.28 221 1.93 87 2.18 308
As an example, in the category „Computers are difficult to use‟, public school students had a
mean of „2.19‟ and private school students had a mean of „1.62‟ – who are far less likely to
agree with these negative statements. Conversely, in the category „I enjoy lessons with a
computer‟, public school students had a mean of „3.88‟ compared to a mean of „4.13‟ for
144
private school students – who are far more likely to agree with positive statements: This is
highlighted in Figure 5.7.
Table 5.41: T-test for Students’ Perception of Using ICT in Teaching and Learning, by
sector
Lower Upper
Equal variances
assumed
.697 .405 -1.737 306 .083 -.249 .143 -.530 .033
Equal variances not
assumed
-1.799 169.846 .074 -.249 .138 -.521 .024
Equal variances
assumed
.580 .447 -1.112 306 .267 -.157 .141 -.436 .121
Equal variances not
assumed
-1.124 161.154 .263 -.157 .140 -.434 .119
Equal variances
assumed
.976 .324 -1.750 306 .081 -.269 .154 -.572 .034
Equal variances not
assumed
-1.750 157.443 .082 -.269 .154 -.573 .035
Equal variances
assumed
10.424 .001 2.516 306 .012 .380 .151 .083 .677
Equal variances not
assumed
2.683 181.345 .008 .380 .142 .100 .659
Equal variances
assumed
1.570 .211 1.908 306 .057 .313 .164 -.010 .636
Equal variances not
assumed
2.036 181.501 .043 .313 .154 .010 .617
Equal variances
assumed
12.028 .001 -1.503 306 .134 -.226 .150 -.522 .070
Equal variances not
assumed
-1.627 187.736 .105 -.226 .139 -.500 .048
Equal variances
assumed
17.618 .000 3.453 306 .001 .543 .157 .233 .852
Equal variances not
assumed
3.775 192.167 .000 .543 .144 .259 .826
Equal variances
assumed
1.191 .276 2.882 306 .004 .471 .163 .149 .793
Equal variances not
assumed
2.978 168.942 .003 .471 .158 .159 .783
Equal variances
assumed
23.622 .000 3.640 306 .000 .565 .155 .260 .870
Equal variances not
assumed
4.251 225.904 .000 .565 .133 .303 .827
Equal variances
assumed
.462 .497 1.734 306 .084 .301 .174 -.041 .643
Equal variances not
assumed
1.763 163.153 .080 .301 .171 -.036 .638
Equal variances
assumed
.123 .726 2.433 306 .016 .396 .163 .076 .716
Equal variances not
assumed
2.503 167.181 .013 .396 .158 .084 .708
Equal variances
assumed
13.996 .000 2.389 306 .017 .370 .155 .065 .675
Equal variances not
assumed
2.558 183.076 .011 .370 .145 .085 .655
Equal variances
assumed
1.043 .308 1.965 306 .050 .350 .178 .000 .699
Equal variances not
assumed
1.980 160.007 .049 .350 .177 .001 .698
Working with computers
makes me nervous
I wish ICT was not used in
teaching
I have better information
sources than ICT
ICT is very helpful in my
learning process
Computer scares me
I need help from teachers to
learn with ICT
Computers are difficult to
use
I find it time-consuming
using ICT in learning
95%
I enjoy lessons with
computer
I feel comfortable working
with computer
I believe that the more often
teachers use computers,
the more I will enjoy school
I am tired of using a
computer
I know how to use ICT but
am not interested in using it
to learn
Levene's t-test for Equality of Means
F Sig. t df Sig. (2-tailed)
Mean
Difference
Std. Error
Difference
145
Figure 5.7: Students’ Perception of Using ICT in Teaching and Learning, by sector
Students were finally invited to describe their confidence in ICT use against a number of ICT
features. Here, we can see a significantly higher more confident response from private school
students than their public school counterparts. From Table 5.42, the results show us that
consistently private school students exceed private school students in their own confidence in
ICT use. Furthermore, Table 5.43 also highlights the fact that in all bar a few cases, the
variation in means was statistically significant.
0.00
0.50
1.00
1.50
2.00
2.50
3.00
3.50
4.00
4.50
1 2 3 4 5 6 7 8 9 10 11 12 13
Public Schools
Private Schools
146
Table 5.42: Students’ confidence in Using ICT in Teaching and Learning, by sector
public private Total
Mean N Mean N Mean N
Basics of operating PC (using keyboard,
mouse … etc.)
3.99 221 4.79 87 4.22 308
Managing files (delete, move to … etc.) 4.10 221 4.82 87 4.30 308
Using word processor ( such as word
program )
4.05 221 4.64 87 4.22 308
Use spreadsheet processor (such as
excel program )
3.76 221 4.43 87 3.95 308
Creating or Using data base processor
(such as access program)
3.56 221 4.05 87 3.69 308
Create and design presentations 3.65 221 4.28 87 3.83 308
Combining files from different resources
( sound or video files ) to create
presentations
3.76 221 4.26 87 3.90 308
Producing learning software 3.12 221 3.13 87 3.12 308
Searching for saved data on hard disk or
compact disk
3.78 221 4.56 87 4.00 308
Using data show basis on PC as
projection tool
3.31 221 3.70 87 3.42 308
Using different designing programs
(Photoshop, Flash)
3.57 221 3.87 87 3.66 308
Deleting or editing pictures, animations
or movies
3.98 221 4.61 87 4.16 308
Using digital camera 3.72 221 4.40 87 3.92 308
Internet browsing 4.17 221 4.84 87 4.36 308
Searching for information on the Internet 4.18 221 4.86 87 4.37 308
Downloading files from the Internet 4.15 221 4.78 87 4.33 308
Using Email ( reading and sending
mails)
4.09 221 4.76 87 4.28 308
Using chat rooms and forums (Facebook,
Twitter)
3.93 221 4.56 87 4.11 308
Publishing a personal blog 3.28 221 3.57 87 3.36 308
Designing web page or personal site 3.29 221 3.60 87 3.37 308
Other applications, please specify 3.39 221 3.66 87 3.46 308
147
Table 5.43: T-test for Students’ Confidence in Using ICT in Teaching and Learning, by sector
Lower Upper
Equal variances
assumed
69.034 .000 -4.997 306 .000 -.802 .161 -1.118 -.486
Equal variances
not assumed
-6.473 285.109 .000 -.802 .124 -1.046 -.558
Equal variances
assumed
78.049 .000 -5.287 306 .000 -.717 .136 -.983 -.450
Equal variances
not assumed
-7.148 301.931 .000 -.717 .100 -.914 -.519
Equal variances
assumed
31.135 .000 -4.297 306 .000 -.589 .137 -.859 -.320
Equal variances
not assumed
-5.301 257.859 .000 -.589 .111 -.808 -.370
Equal variances
assumed
14.774 .000 -4.694 306 .000 -.665 .142 -.944 -.386
Equal variances
not assumed
-5.423 220.003 .000 -.665 .123 -.907 -.423
Equal variances
assumed
1.972 .161 -3.415 306 .001 -.489 .143 -.771 -.207
Equal variances
not assumed
-3.518 167.731 .001 -.489 .139 -.764 -.215
Equal variances
assumed
11.850 .001 -4.360 306 .000 -.624 .143 -.906 -.343
Equal variances
not assumed
-4.849 200.239 .000 -.624 .129 -.878 -.370
Equal variances
assumed
3.919 .049 -3.420 306 .001 -.504 .147 -.794 -.214
Equal variances
not assumed
-3.611 177.198 .000 -.504 .140 -.780 -.229
Equal variances
assumed
1.311 .253 -.062 306 .951 -.009 .142 -.289 .271
Equal variances
not assumed
-.065 175.488 .948 -.009 .135 -.276 .258
Equal variances
assumed
29.683 .000 -5.361 306 .000 -.785 .146 -1.073 -.497
Equal variances
not assumed
-6.477 245.532 .000 -.785 .121 -1.024 -.546
Equal variances
assumed
.005 .945 -2.491 306 .013 -.389 .156 -.696 -.082
Equal variances
not assumed
-2.567 167.948 .011 -.389 .151 -.688 -.090
Equal variances
assumed
2.624 .106 -1.879 306 .061 -.299 .159 -.612 .014
Equal variances
not assumed
-1.951 170.775 .053 -.299 .153 -.601 .004
Equal variances
assumed
20.064 .000 -4.555 306 .000 -.632 .139 -.905 -.359
Equal variances
not assumed
-5.527 248.117 .000 -.632 .114 -.857 -.407
Equal variances
assumed
24.616 .000 -4.310 306 .000 -.678 .157 -.988 -.369
Equal variances
not assumed
-5.059 228.800 .000 -.678 .134 -.942 -.414
Equal variances
assumed
88.621 .000 -4.987 306 .000 -.672 .135 -.937 -.407
Equal variances
not assumed
-7.028 305.309 .000 -.672 .096 -.860 -.484
Equal variances
assumed
86.332 .000 -5.142 306 .000 -.681 .132 -.942 -.420
Equal variances
not assumed
-7.192 305.912 .000 -.681 .095 -.867 -.495
Equal variances
assumed
71.261 .000 -4.627 306 .000 -.628 .136 -.895 -.361
Equal variances
not assumed
-6.410 305.862 .000 -.628 .098 -.820 -.435
Equal variances
assumed
65.587 .000 -4.676 306 .000 -.673 .144 -.956 -.390
Equal variances
not assumed
-6.091 287.875 .000 -.673 .110 -.890 -.455
Equal variances
assumed
24.823 .000 -4.133 306 .000 -.631 .153 -.932 -.331
Equal variances
not assumed
-4.745 216.627 .000 -.631 .133 -.893 -.369
Equal variances
assumed
1.126 .289 -1.841 306 .067 -.294 .160 -.609 .020
Equal variances
not assumed
-1.832 155.970 .069 -.294 .161 -.611 .023
Equal variances
assumed
3.754 .054 -1.997 306 .047 -.313 .157 -.621 -.005
Equal variances
not assumed
-2.133 181.818 .034 -.313 .147 -.602 -.023
Equal variances
assumed
.029 .864 -1.761 306 .079 -.266 .151 -.563 .031
Equal variances
not assumed
-1.801 165.199 .074 -.266 .148 -.558 .026
Other applications, please
specify
Using different designing
programs (Photoshop, Flash)
Deleting or editing pictures,
animations or movies
Using digital camera
Internet browsing
Searching for information on
the Internet
Searching for saved data on
hard disk or compact disk
Using data show basis on PC
as projection tool
Using Email ( reading and
sending mails)
Using chat rooms and forums
(Facebook, Twitter)
Publishing a personal blog
Designing web page or
personal site
95% Confidence
Basics of operating PC (using
keyboard, mouse … etc.)
Managing files (delete, move
to … etc.)
Using word processor ( such
as word program )
Use spreadsheet processor
(such as excel program )
Downloading files from the
Internet
Creating or Using data base
processor (such as access
program)
Create and design
presentations
Combining files from different
resources ( sound or video
files ) to create presentations
Producing learning software
Levene's Test for t-test for Equality of Means
F Sig. t df Sig. (2-tailed)
Mean
Difference
Std. Error
Difference
148
5.7.7 Analysis by Sector using Combined Measures
Similarly to the analysis undertaken in the responses of the teachers‟ questionnaires, we
can combine the separate questions within individual elements of the student
questionnaires and test for overall significance in any differences between the groups.
Here, again, the research looks at three separate measures – confidence, use (at home and
school combined) and of ICT use in learning and teaching to examine those differences
already considered at a „micro‟ level. In terms of the use of ICT in learning and teaching, it
should be noted that the combined „means‟ consider only the positive statements, to enable
a meaningful anlaysis of the data.
Table 5.44: Combined Measures Analysis by Sector
Group Statistics
SECTOR N Mean Std. Deviation Std. Error Mean
Student school and homeuse combined public 221 1.922511 .7965833 .0535840
private 87 1.697989 .7212435 .0773254
Students confidence combined public 221 3.772172 .9385466 .0631335
private 87 4.325862 .5335196 .0571993
Student ICT inlearning combined public 221 3.780543 1.0039271 .0675314
private 87 4.005747 .9101950 .0975831
Table 5.44 shows us that, in terms of ICT use at both home and school, public school
students have a higher level of use – refletive of the previous analysis that showed much
higher levels of ICT use in public schools, and a more mixed picture in terms of ICT use at
home. In terms of confidence, students from the private sector have much greater belief in
their abilities to use ICT effectively, and similarly are more positive about the impact of
ICT in the learning and teaching process. These results are reflective of the prior analysis
at a question level. The T-tests shown in table 5.45 however, show that the differences in
means at this combined level, are only significant for the confidence in ICT use, and not
for the level of use nor belief in its impact.
149
Table 5.45: T-Test results for Combined Variables, by Sector
The Mann-Whitney test when applied does suggest that we reject the null hypothesis that
any difference in the means are not explained by the difference in sector for both
confidence in and, different to the T-tests, the use of ICT. Similar to the previous analysis
of teacher responses, we can examine the distribution of the data to establish which test is
more meaningful.
Table 5.46: Mann-Whitney Output for Student Combined Variables by Sector
The Shapiro-Wilk result shown in Table 5.47 (p=.338) suggests that the data is normally
distributed, as such we will opt to use the T-test results and take only the difference in
overall confidence as being explained by the differences in the sector of the students.
150
Table 5.47: Shapiro-Wilk Test Results for Student ICT Use Normality
Statistic Df Sig.
Student school and home use combined 0.995 308 .338
151
5.7.8 Analysing the Student Response by Gender
Another one of the key questions in the research is „Are there any differences between male
and female students teaching and learning in terms of their exposure to, and use of ICT in the
classroom?‟ For this purpose, the research now analyses the results of the student
questionnaire, broken down into male and female respondents.
Again, we can apply a T-test for significance and the results are displayed against each
associated „major‟ section of the questionnaire. The T-test is adopted as once more the
independent variable has only two possible values, male or female.
The first element of the questionnaire that students were invited to complete required them to
describe the level of their ICT use in school, against a number of specific activities. The results
are shown in Table 5.48 and Figure 5.8 below.
The results are inconclusive. Only two of the separate aspects of ICT are significant, namely „I
look up information on hard disks and compact discs (CD ROMs) with a mean of 1.12 male
and .80 for females. Conversely, „I shop on the internet‟ with a mean of 1.19 and 1.28 for
females. The significances are shown in Table 5.49 where the two tailed sig tests (i.e. the T-test
result) are below 0.05.
152
Table 5.48: Students’ ICT use in School, by Gender
gender
male female Total
Mean N Mean N Mean N
I look up for information
on hard disk and compact
discs ( CD ROMs )
1.12 152 .80 156 .96 308
I use educational software
to learn some lessons
1.38 152 1.31 156 1.35 308
I use some spreadsheets .88 152 .87 156 .87 308
I use / create pictures and
animations
1.96 152 2.21 156 2.08 308
I watch DVDs/videos on
the computer
1.97 152 1.91 156 1.94 308
I make/design things on the
computer (like posters,
invites)
1.11 152 1.37 156 1.24 308
I use computer for writing 2.30 152 2.35 156 2.32 308
I design websites 2.70 152 2.62 156 2.66 308
I program the computer 1.49 152 1.41 156 1.45 308
I download music files or
software from the Web
2.24 152 2.18 156 2.21 308
I send and receive emails 2.17 152 2.13 156 2.15 308
I organize the computer
settings such as
files/memory/system
.94 152 .89 156 .92 308
I use the Internet to look up
information
.78 152 .77 156 .78 308
I watch TV/listen to
radio/music on the Internet
1.41 152 1.66 156 1.54 308
I use the Internet to revise
for exams
1.43 152 1.12 156 1.27 308
I create/record sound files
on the computer
.97 152 .88 156 .93 308
I make films/animations on
the computer
.79 152 .74 156 .76 308
I browse the Internet for
fun
2.54 152 2.30 156 2.42 308
I play games on the
computer
2.07 152 2.22 156 2.15 308
I shop on the Internet 1.19 152 1.28 156 1.24 308
153
Figure 5.8: Students’ ICT use in School, by Gender
154
Table 5.49: T-test for Students’ ICT use in School, by Gender
Lowe
r
Uppe
r
Equal variances
assumed
5.792 .017 2.078 306 .039 .317 .153 .017 .617
Equal variances
not assumed
2.074 298.285 .039 .317 .153 .016 .618
Equal variances
assumed
.061 .806 .388 306 .698 .067 .174 -.275 .410
Equal variances
not assumed
.388 305.938 .698 .067 .174 -.275 .410
Equal variances
assumed
.021 .885 .021 306 .983 .003 .154 -.300 .307
Equal variances
not assumed
.021 305.922 .983 .003 .154 -.300 .306
Equal variances
assumed
.000 .999 -1.252 306 .212 -.245 .195 -.629 .140
Equal variances
not assumed
-1.252 305.625 .212 -.245 .195 -.629 .140
Equal variances
assumed
.873 .351 .261 306 .794 .057 .218 -.372 .485
Equal variances
not assumed
.261 304.600 .794 .057 .218 -.372 .486
Equal variances
assumed
.562 .454 -1.420 306 .157 -.254 .179 -.605 .098
Equal variances
not assumed
-1.420 305.990 .157 -.254 .179 -.605 .098
Equal variances
assumed
.005 .944 -.234 306 .815 -.050 .214 -.471 .371
Equal variances
not assumed
-.234 305.889 .815 -.050 .214 -.471 .371
Equal variances
assumed
.098 .754 .325 306 .746 .076 .233 -.383 .534
Equal variances
not assumed
.325 305.467 .746 .076 .233 -.383 .534
Equal variances
assumed
.150 .699 .400 306 .689 .077 .191 -.300 .453
Equal variances
not assumed
.400 305.985 .689 .077 .191 -.300 .453
Equal variances
assumed
.724 .395 .265 306 .791 .064 .241 -.410 .538
Equal variances
not assumed
.265 305.993 .791 .064 .241 -.410 .538
Equal variances
assumed
2.194 .140 .157 306 .875 .036 .232 -.421 .494
Equal variances
not assumed
.157 304.506 .876 .036 .232 -.421 .494
Equal variances
assumed
.392 .532 .326 306 .744 .050 .152 -.250 .350
Equal variances
not assumed
.326 305.992 .744 .050 .152 -.250 .350
Equal variances
assumed
.004 .949 .092 306 .927 .014 .148 -.278 .305
Equal variances
not assumed
.092 305.428 .927 .014 .148 -.278 .305
Equal variances
assumed
1.283 .258 -1.144 306 .254 -.246 .215 -.669 .177
Equal variances
not assumed
-1.145 305.803 .253 -.246 .215 -.668 .177
Equal variances
assumed
6.315 .012 1.714 306 .088 .306 .178 -.045 .657
Equal variances
not assumed
1.712 301.298 .088 .306 .179 -.046 .657
Equal variances
assumed
.367 .545 .506 306 .613 .089 .176 -.257 .435
Equal variances
not assumed
.506 304.048 .613 .089 .176 -.258 .436
Equal variances
assumed
.381 .538 .313 306 .754 .052 .167 -.276 .381
Equal variances
not assumed
.313 304.189 .755 .052 .167 -.277 .381
Equal variances
assumed
2.152 .143 .989 306 .323 .238 .241 -.236 .712
Equal variances
not assumed
.990 305.892 .323 .238 .241 -.235 .712
Equal variances
assumed
1.447 .230 -.693 306 .489 -.159 .229 -.609 .292
Equal variances
not assumed
-.693 305.989 .489 -.159 .229 -.609 .292
Equal variances
assumed
.032 .858 -.469 306 .640 -.091 .195 -.474 .292
Equal variances
not assumed
-.469 305.682 .640 -.091 .195 -.474 .292
Equal variances
assumed
.002 .963 .172 306 .863 .020 .117 -.210 .250
Equal variances
not assumed
.172 305.987 .863 .020 .117 -.210 .250
Equal variances
assumed
1.284 .258 -2.089 306 .038 -.413 .198 -.802 -.024
Equal variances
not assumed
-2.090 305.868 .037 -.413 .198 -.801 -.024
Sig. t df
Sig. (2-
tailed)
Mean
Difference
I download music files or software
from the Web
Std. Error
Difference
95%
I look up for information on hard disk
and compact discs ( CD ROMs )
I use educational software to learn
some lessons
I use some spreadsheets
I use / create pictures and animations
I watch DVDs/videos on the
computer
I make/design things on the computer
(like posters, invites)
I use computer for writing
I design websites
I program the computer
Levene's t-test for Equality of Means
F
I shop on the Internet
I send and receive emails
I organize the computer settings such
as files/memory/system
I use the Internet to look up
information
I watch TV/listen to radio/music on
the Internet
I use the Internet to revise for exams
I create/record sound files on the
computer
I make films/animations on the
computer
I browse the Internet for fun
I play games on the computer
I shop on the Internet
How often do you use ICT at school
for completing these tasks?
155
Students were also invited to assess their use of the same ICT features, in the home. The
results are shown in Table 5.50 and Figure 5.9. ICT use from the home, as opposed to school
based use, is generally higher for students. The variation in means between male and female
students however, shows little significance. The only category which has any significant result
is „I shop on the internet‟ with a mean of 1.81 for females and 1.40 for males.
Table 5.50: Students’ ICT use at home, by Gender
gender
male female Total
Mean N Mean N Mean N
I shop on the Internet 1.40 152 1.81 156 1.61 308
I play games on the computer 3.05 152 3.28 156 3.17 308
I browse the Internet for fun 3.60 152 3.42 156 3.51 308
I make films/animations on the computer 1.33 152 1.31 156 1.32 308
I create/record sound files on the computer 1.53 152 1.42 156 1.47 308
I use the Internet to revise for exams 1.89 152 1.87 156 1.88 308
I watch TV/listen to radio/music on the Internet 2.20 152 2.49 156 2.34 308
I use the Internet to look up information 1.13 152 .97 156 1.05 308
I organize the computer settings such as
files/memory/system
1.36 152 1.15 156 1.25 308
I send and receive emails 3.10 152 2.87 156 2.98 308
I download music files or software from the
Web
3.39 152 3.16 156 3.27 308
I program the computer 2.25 152 1.99 156 2.12 308
I design websites 3.28 152 3.11 156 3.19 308
I use computer for writing 2.72 152 2.86 156 2.79 308
I make/design things on the computer (like
posters, invites)
1.49 152 1.69 156 1.59 308
I watch DVDs/videos on the computer 2.74 152 2.74 156 2.74 308
I use / create pictures and animations 2.13 152 2.35 156 2.24 308
I use some spreadsheets 1.39 152 1.29 156 1.34 308
I use educational software to learn some lessons 1.61 152 1.48 156 1.54 308
I look up for information on hard disk and
compact discs ( CD ROMs )
1.80 152 1.42 156 1.61 308
156
Table 5.51: T-test for Students’ ICT use at Home, by Gender
Lowe
r
Uppe
r
Equal variances
assumed
1.284 .258 -2.089 306 .038 -.413 .198 -.802 -.024
Equal variances not
assumed
-2.090 305.868 .037 -.413 .198 -.801 -.024
Equal variances
assumed
7.120 .008 -1.115 306 .266 -.223 .200 -.617 .171
Equal variances not
assumed
-1.113 297.347 .267 -.223 .200 -.617 .171
Equal variances
assumed
.065 .799 .892 306 .373 .176 .197 -.212 .563
Equal variances not
assumed
.892 305.851 .373 .176 .197 -.212 .563
Equal variances
assumed
1.549 .214 .077 306 .939 .015 .193 -.365 .395
Equal variances not
assumed
.077 305.310 .939 .015 .193 -.365 .395
Equal variances
assumed
.502 .479 .583 306 .561 .116 .200 -.276 .509
Equal variances not
assumed
.582 305.246 .561 .116 .200 -.276 .509
Equal variances
assumed
.042 .837 .145 306 .885 .029 .203 -.369 .428
Equal variances not
assumed
.145 305.995 .885 .029 .202 -.369 .428
Equal variances
assumed
2.044 .154 -1.308 306 .192 -.290 .222 -.726 .146
Equal variances not
assumed
-1.307 303.719 .192 -.290 .222 -.726 .147
Equal variances
assumed
1.134 .288 .904 306 .367 .157 .174 -.185 .500
Equal variances not
assumed
.902 301.693 .368 .157 .174 -.186 .500
Equal variances
assumed
.016 .899 1.156 306 .249 .201 .174 -.141 .544
Equal variances not
assumed
1.157 305.946 .248 .201 .174 -.141 .544
Equal variances
assumed
1.886 .171 1.133 306 .258 .233 .206 -.172 .639
Equal variances not
assumed
1.132 303.936 .259 .233 .206 -.172 .639
Equal variances
assumed
.004 .950 1.071 306 .285 .228 .213 -.191 .647
Equal variances not
assumed
1.071 305.860 .285 .228 .213 -.191 .647
Equal variances
assumed
1.096 .296 1.274 306 .204 .263 .206 -.143 .669
Equal variances not
assumed
1.273 303.572 .204 .263 .206 -.143 .669
Equal variances
assumed
.004 .950 .854 306 .394 .167 .196 -.218 .553
Equal variances not
assumed
.854 305.983 .394 .167 .196 -.218 .553
Equal variances
assumed
.163 .686 -.676 306 .500 -.142 .210 -.555 .271
Equal variances not
assumed
-.676 305.534 .500 -.142 .210 -.555 .271
Equal variances
assumed
1.245 .265 -1.064 306 .288 -.199 .187 -.567 .169
Equal variances not
assumed
-1.063 301.826 .289 -.199 .187 -.567 .169
Equal variances
assumed
.122 .727 -.033 306 .974 -.007 .203 -.406 .393
Equal variances not
assumed
-.033 305.323 .974 -.007 .203 -.406 .393
Equal variances
assumed
.026 .872 -1.048 306 .296 -.221 .211 -.637 .194
Equal variances not
assumed
-1.047 305.351 .296 -.221 .211 -.637 .194
Equal variances
assumed
.408 .523 .521 306 .603 .100 .192 -.277 .477
Equal variances not
assumed
.521 305.918 .603 .100 .191 -.277 .476
Equal variances
assumed
.040 .841 .691 306 .490 .124 .180 -.230 .479
Equal variances not
assumed
.691 305.763 .490 .124 .180 -.230 .479
Equal variances
assumed
4.028 .046 1.950 306 .052 .380 .195 -.003 .762
Equal variances not
assumed
1.947 298.795 .052 .380 .195 -.004 .763
Sig. t df Sig. (2-tailed)
Mean
Difference
I send and receive emails
Std. Error
Difference
95%
I shop on the Internet
I play games on the computer
I browse the Internet for fun
I make films/animations on the
computer
I create/record sound files on the
computer
I use the Internet to revise for
exams
I watch TV/listen to radio/music
on the Internet
I use the Internet to look up
information
I organize the computer settings
such as files/memory/system
Levene's t-test for Equality of Means
F
I use / create pictures and
animations
I use some spreadsheets
I use educational software to learn
some lessons
I look up for information on hard
disk and compact discs ( CD
ROMs )
I download music files or software
from the Web
I program the computer
I design websites
I use computer for writing
I make/design things on the
computer (like posters, invites)
I watch DVDs/videos on the
computer
157
Figure 5.9: Students’ ICT use at Home, by gender
Students were also invited to give their opinions on the use of ICT in the teaching and learning
process, and were requested to agree/disagree with a series of statements. These are shown in
Table 5.52 below, again broken down by gender. In this analysis, where 5=strongly agree,
students were posed with several positive and negative statements. The mean averages shown
below highlight the fact that there is no significant difference between male and female
perceptions.
0.00
0.50
1.00
1.50
2.00
2.50
3.00
3.50
4.00
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Male
Female
158
Table 5.52: Students’ Perception of Using ICT in Teaching and Learning, by Gender
male female Total
Mean N Mean N Mean N
I enjoy lessons with a computer 3.95 152 3.95 156 3.95 308
I feel comfortable working with
computers
3.76 152 3.87 156 3.82 308
I believe that the more often
teachers use computers, the more
I will enjoy school
3.70 152 3.89 156 3.80 308
I am tired of using a computer 2.36 152 2.24 156 2.30 308
I have better information sources
than ICT
2.83 152 2.93 156 2.88 308
ICT is very helpful in my
learning process
3.90 152 3.73 156 3.81 308
Computers scare me 1.93 152 2.04 156 1.99 308
I need help from teachers to learn
with ICT
2.58 152 2.60 156 2.59 308
Computers are difficult to use 1.98 152 2.07 156 2.03 308
I find it time-consuming using
ICT in learning
2.59 152 2.67 156 2.63 308
I know how to use ICT but am
not interested in using it to learn
2.82 152 2.88 156 2.85 308
Working with computers makes
me nervous
2.28 152 2.38 156 2.33 308
I wish ICT was not used in
teaching
2.20 152 2.17 156 2.18 308
It is also clear to see this in Table 5.53. The T-test shows this clearly as there are no significant
results below 0.05.
159
Table 5.53: T-test for Students’ Perception of Using ICT in Teaching and Learning, by
Gender
Lowe
r
Uppe
r
Equal variances
assumed
.888 .347 -.010 306 .992 -.001 .130 -.256 .254
Equal variances not
assumed
-.010 305.461 .992 -.001 .129 -.256 .253
Equal variances
assumed
1.143 .286 -.852 306 .395 -.109 .127 -.360 .142
Equal variances not
assumed
-.851 303.467 .395 -.109 .128 -.360 .142
Equal variances
assumed
2.218 .137 -1.396 306 .164 -.194 .139 -.467 .079
Equal variances not
assumed
-1.395 303.064 .164 -.194 .139 -.467 .080
Equal variances
assumed
.331 .566 .861 306 .390 .118 .137 -.152 .388
Equal variances not
assumed
.861 304.421 .390 .118 .137 -.152 .388
Equal variances
assumed
.105 .746 -.677 306 .499 -.101 .149 -.393 .192
Equal variances not
assumed
-.677 305.846 .499 -.101 .149 -.393 .192
Equal variances
assumed
.574 .449 1.259 306 .209 .171 .135 -.096 .437
Equal variances not
assumed
1.260 305.970 .209 .171 .135 -.096 .437
Equal variances
assumed
.010 .921 -.724 306 .470 -.104 .144 -.388 .179
Equal variances not
assumed
-.724 305.972 .470 -.104 .144 -.388 .179
Equal variances
assumed
1.311 .253 -.158 306 .874 -.024 .149 -.317 .270
Equal variances not
assumed
-.158 304.704 .874 -.024 .149 -.317 .270
Equal variances
assumed
.437 .509 -.633 306 .527 -.090 .143 -.371 .190
Equal variances not
assumed
-.632 304.516 .528 -.090 .143 -.371 .191
Equal variances
assumed
.011 .917 -.475 306 .635 -.075 .157 -.384 .235
Equal variances not
assumed
-.475 305.802 .635 -.075 .157 -.384 .235
Equal variances
assumed
2.801 .095 -.422 306 .673 -.062 .148 -.354 .229
Equal variances not
assumed
-.423 303.999 .673 -.062 .148 -.353 .228
Equal variances
assumed
.418 .518 -.723 306 .470 -.102 .141 -.378 .175
Equal variances not
assumed
-.724 305.862 .470 -.102 .141 -.378 .175
Equal variances
assumed
1.282 .258 .191 306 .849 .031 .161 -.286 .348
Equal variances not
assumed
.190 304.676 .849 .031 .161 -.287 .348
I am tired of using
a computer
Levene's t-test for Equality of Means
F Sig. t df
Sig. (2-
tailed)
Mean
Difference
Std. Error
Difference
95%
I enjoy lessons with
computer
I feel comfortable
working with
computer
I believe that the
more often
teachers use
computers, the
I know how to use
ICT but am not
interested in using
it to learn
Working with
computers makes
me nervous
I wish ICT was not
used in teaching
I have better
information sources
than ICT
ICT is very helpful
in my learning
process
Computer scares
me
I need help from
teachers to learn
with ICT
Computers are
difficult to use
I find it time-
consuming using
ICT in learning
160
0.00
0.50
1.00
1.50
2.00
2.50
3.00
3.50
4.00
4.50
5.00
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19
Male
Female
0.00
0.50
1.00
1.50
2.00
2.50
3.00
3.50
4.00
4.50
1 2 3 4 5 6 7 8 9 10 11 12 13
Male
Female
Figure 5.10: Students’ Perception of Using ICT in Teaching and Learning, by Gender
Students were finally invited to describe their confidence in ICT use against a number of ICT
features. Here we can see a slightly higher more confident response from females than males.
Figure 5.11 shows the difference graphically. From this Figure and from Table 5.54, the results
consistently show us that female‟ have slightly more confidence in their use of ICT.
Furthermore Table 5.55 highlights that a number of aspects here have significant variation in
the means for male and female students. For example, „Create and Design Presentations‟ had a
mean of 3.61 for male and 4.04 for females. Similarly, „Using databases‟ had a mean of 3.56
for males and 3.83 for females. The t-test results for both of these variables were less than
0.05, and so are significant with a 95% confidence level.
Figure 5.11: Students’ Confidence in Using ICT in Teaching and Learning, by Gender
161
Table 5.54: Students’ confidence in Using ICT in Teaching and Learning, by Gender
male female Total
Mean N Mean N Mean N
Basics of operating PC (using keyboard,
mouse … etc.)
4.07 152 4.36 156 4.22 308
Managing files (delete, move to … etc.) 4.20 152 4.40 156 4.30 308
Using word processor ( such as word
program )
4.11 152 4.33 156 4.22 308
Use spreadsheet processor (such as excel
program )
3.88 152 4.02 156 3.95 308
Creating or Using data base processor (such
as access program)
3.56 152 3.83 156 3.69 308
Create and design presentations 3.61 152 4.04 156 3.83 308
Combining files from different resources (
sound or video files ) to create presentations
3.81 152 3.99 156 3.90 308
Producing learning software 3.00 152 3.24 156 3.12 308
Searching for saved data on hard disk or
compact disk
3.93 152 4.06 156 4.00 308
Using data show basis on PC as projection
tool
3.26 152 3.58 156 3.42 308
Using different designing programs
(Photoshop, Flash)
3.69 152 3.63 156 3.66 308
Deleting or editing pictures, animations or
movies
4.09 152 4.22 156 4.16 308
Using digital camera 3.89 152 3.94 156 3.92 308
Internet browsing 4.28 152 4.43 156 4.36 308
Searching for information on the Internet 4.29 152 4.46 156 4.37 308
Downloading files from the Internet 4.24 152 4.42 156 4.33 308
Using Email ( reading and sending mails) 4.17 152 4.38 156 4.28 308
Using chat rooms and forums (Facebook,
Twitter)
4.05 152 4.17 156 4.11 308
Publishing a personal blog 3.33 152 3.40 156 3.36 308
Designing web page or personal site 3.34 152 3.41 156 3.37 308
162
Table 5.55: T-test for Students’ Confidence in Using ICT in Teaching and Learning, by
Gender
Lowe
r
Uppe
r
Equal
variances
assumed
8.892 .003 -1.918 306 .056 -.287 .149 -.581 .007
Equal
variances not
assumed
-1.913 293.085 .057 -.287 .150 -.581 .008
Equal
variances
assumed
3.024 .083 -1.523 306 .129 -.193 .127 -.443 .056
Equal
variances not
assumed
-1.522 302.626 .129 -.193 .127 -.444 .057
Equal
variances
assumed
1.239 .266 -1.803 306 .072 -.228 .127 -.477 .021
Equal
variances not
assumed
-1.801 303.479 .073 -.228 .127 -.477 .021
Equal
variances
assumed
.240 .624 -1.094 306 .275 -.144 .132 -.404 .115
Equal
variances not
assumed
-1.094 305.293 .275 -.144 .132 -.404 .115
Equal
variances
assumed
1.711 .192 -2.050 306 .041 -.268 .131 -.525 -.011
Equal
variances not
assumed
-2.049 304.834 .041 -.268 .131 -.525 -.011
Equal
variances
assumed
2.304 .130 -3.266 306 .001 -.427 .131 -.684 -.170
Equal
variances not
assumed
-3.264 304.300 .001 -.427 .131 -.684 -.169
Equal
variances
assumed
4.571 .033 -1.367 306 .173 -.184 .135 -.450 .081
Equal
variances not
assumed
-1.365 300.286 .173 -.184 .135 -.450 .081
Equal
variances
assumed
.082 .775 -1.862 306 .064 -.237 .127 -.488 .013
Equal
variances not
assumed
-1.862 305.415 .064 -.237 .127 -.488 .014
Equal
variances
assumed
3.420 .065 -.943 306 .346 -.130 .138 -.401 .141
Equal
variances not
assumed
-.941 297.122 .347 -.130 .138 -.401 .142
Equal
variances
assumed
.106 .745 -2.321 306 .021 -.327 .141 -.604 -.050
Equal
variances not
assumed
-2.321 305.578 .021 -.327 .141 -.604 -.050
Equal
variances
assumed
.564 .453 .434 306 .664 .063 .144 -.221 .346
Equal
variances not
assumed
.434 303.186 .665 .063 .144 -.221 .346
Equal
variances
assumed
.418 .518 -.976 306 .330 -.126 .129 -.379 .128
Equal
variances not
assumed
-.976 304.714 .330 -.126 .129 -.380 .128
Equal
variances
assumed
.511 .475 -.371 306 .711 -.054 .146 -.341 .233
Equal
variances not
assumed
-.371 304.413 .711 -.054 .146 -.341 .233
Equal
variances
assumed
2.558 .111 -1.165 306 .245 -.147 .126 -.394 .101
Equal
variances not
assumed
-1.163 301.196 .246 -.147 .126 -.395 .101
Equal
variances
assumed
3.851 .051 -1.336 306 .182 -.166 .124 -.410 .078
Equal
variances not
assumed
-1.334 298.191 .183 -.166 .124 -.410 .079
Equal
variances
assumed
4.178 .042 -1.479 306 .140 -.186 .126 -.434 .062
Equal
variances not
assumed
-1.476 297.323 .141 -.186 .126 -.435 .062
Equal
variances
assumed
5.912 .016 -1.551 306 .122 -.207 .134 -.470 .056
Equal
variances not
assumed
-1.547 289.960 .123 -.207 .134 -.471 .056
Equal
variances
assumed
2.435 .120 -.808 306 .420 -.114 .141 -.392 .164
Equal
variances not
assumed
-.807 301.677 .420 -.114 .141 -.392 .164
Equal
variances
assumed
1.295 .256 -.473 306 .636 -.068 .145 -.353 .216
Equal
variances not
assumed
-.473 303.423 .637 -.068 .145 -.353 .216
Equal
variances
assumed
.810 .369 -.527 306 .599 -.075 .142 -.354 .204
Equal
variances not
assumed
-.527 304.552 .599 -.075 .142 -.354 .204
Equal
variances
assumed
5.060 .025 1.088 306 .278 .148 .136 -.120 .417
Equal
variances not
assumed
1.086 300.080 .278 .148 .137 -.121 .417
Use spreadsheet processor
(such as excel program )
Levene's t-test for Equality of Means
F Sig. t df
Sig. (2-
tailed)
Mean
Difference
Std. Error
Difference
95%
Basics of operating PC (using
keyboard, mouse … etc.)
Managing files (delete, move
to … etc.)
Using word processor ( such
as word program )
Downloading files from the
Internet
Creating or Using data base
processor (such as access
program)
Create and design
presentations
Combining files from different
resources ( sound or video
files ) to create presentations
Producing learning software
Searching for saved data on
hard disk or compact disk
Using data show basis on PC
as projection tool
Using different designing
programs (Photoshop, Flash)
Deleting or editing pictures,
animations or movies
Using digital camera
Internet browsing
Searching for information on
the Internet
Using Email ( reading and
sending mails)
Using chat rooms and forums
(Facebook, Twitter)
Publishing a personal blog
Designing web page or
personal site
Other applications, please
specify
163
5.7.9 Analysis by Gender using Combined Variables
Similar to the analysis undertaken for the independent variable of sector, we can now
consider the influence of gender. Here we use the same combined variables as previous to
establish whether there are significant differences at a broader level between males and
females. Table 5.56 below shows us that males are more likely to use ICT than females,
whereas females are more likely to have higher confidence levels and a greater belief in its
ability to impact upon learning and teaching. This is consistent with the results shown
previously, given the relative differences in the means, where the issue of confidence
would appear to be greater.
Table 5.56: Combined Measures for Students by Gender
Group Statistics
gender N Mean Std. Deviation Std. Error Mean
Student school and home use combined male 152 1.875000 .7555863 .0612861
female 156 1.843590 .8080236 .0646937
Student confidence combined male 152 3.839803 .8788791 .0712865
female 156 4.015064 .8740233 .0699779
Student ICTin learning combined male 152 3.827303 .9842441 .0798327
female 156 3.860577 .9830172 .0787044
The T-test results tell us that none of these differences are explained by the gender
variable, and as such are not significant. However the Mann-Whitney result tells us that the
difference in confidence is significant, and as such to investigate this contradiction we
examine the normality of the data. The distribution of the data, shown in the Shapiro-Wilk
result in Table 5.59, is not normal – and as such we would assume the Mann-Whitney
outcome. This leads us to the conclusion that females are indeed more confident than
males and that difference is significant.
164
Table 5.57: T-test Results for Combined Variable by Gender
Table 5.58: Mann-Whitney Results for Combined Variables by Gender
Table 5.59: Shaprio-Wilk Results for Student Confidence
Shapiro-Wilk
Statistic df Sig.
studentconfidencecombined .897 308 .000
165
5.8 Interview Data Analysis
5.8.1 Analysis by Research Question
Having already analysed the questionnaire responses, attention is now focused on the
structured interviews which took place as part of the research. It is important to note that
aims of this part of the data analysis are to answer two of the four key questions outlined in
Chapter 1 of this thesis. Namely:
How confident are teachers in using ICT in the teaching and learning process?
How do students use ICT in the classroom and at home?
The interviews came in two major parts. Firstly, the researcher interviewed 14 teachers in
primary and secondary education in Kuwait. They were asked six questions which are
outlined in Appendix 3 of this document. Secondly, two Directors from the Ministry of
Education in Kuwait were interviewed – the Director of the Department for Educational
Technologies and the Director for the Department of Research, shown again in Appendix 3
of this document.
The focus of the analysis herein is the responses from the teaching staff in schools. Here
we consider each question in turn, and create a coding structure to interpret the data. These
codes are initially considered in isolation, before we attempt to develop emergent
categories from those kids, in an attempt to answer the questions outlined above, and
additionally triangulate that data with that considered in the survey analysis earlier in this
Chapter. To do this, the analysis first considers the emergent codes from each question in
turn, and then considers the two research questions in light of the categories (or themes)
which develop from that coding. It should be noted that in doing so, we subject breakdown
of the respondents is ignored, due to the small numbers of respondents involved.
When considering the categories, cross-reference is made to the responses from the
Directors in the Ministry of Education, who answered five different, but linked questions.
166
In attempting to triangulate the data in this way, we can compare the evidence from policy-
makers as well as those who implement those policies.
Question 1 – What kind of ICT do you use in the classroom?
A large number of respondents to this question cited projector based software/hardware
and educational software as the main sources of ICT use in the classroom. The former,
including software such as „MS PowerPoint‟ and the use of a data project, appears to be
commonplace within the teaching environment in Kuwait. Educational software, notably
that provided by the Ministry of Education in Kuwait, is also frequency used by teachers.
Additionally, the use of the internet, other standard applications (e.g. Excel) and
movie/subject based software are also included in the responses.
Question Codes Occurrences
1 PROJ 8
EDU 9
XLS 1
NET 3
MOV 1
SUBJ 1
Question 2 – What are the teaching methods that you use to integrate ICT in the classroom,
such as individual and team projects including lectures?
The responses to this question are very closely linked to that of question 1, as one might
expect given the nature of question 1 being focused on the actual methods used, and
question 2 being the methodology used to employ those methods. Here we can see that a
significant focus of the effort from teachers to integrate ICT into the classroom is focused
167
on three areas – participation, team activities and educational software. From the
respondents it seems that ICT acts as a key enabler to improve participation for learners in
the classroom.
„…cooperative education with use of ICT helps the teacher to explain his subject and
makes all students participating in the educational process…‟
(Interview Transcript 7)
Additionally, the use of educational software, as already adhered to in Question 1, seems
prevalent to teachers in Kuwait as a key method for learning and teaching. It appears that
the use of that software is linked to evidencing more practical approaches to learning,
whereby students can use more visual or „hands-on‟ approaches in learning and,
„…can see and interact with scientific material, for example in anatomy, the student can
experience virtual autopsy on some animals through educational program.‟
(Interview Transcript 8)
Another common response is the use of teamwork as a teaching and learning method
through ICT use. Respondents commented on the use of teams and „using 1 PC‟ per those
teams, to integrate ICT into the classroom.
Question Codes Occurrences
2 WKS 2
PART 4
EDU 5
TEAM 4
RES 1
MOV 1
168
Question 3 – What are the objectives that you want to achieve through the integration of
ICT?
In this question, four major areas are seen form the responses. A major objective
associated with the integration of ICT in the classroom is that of the efficiencies and speed
gained in its application, both from the perspective of preparing for lessons, and the
efficiency in which the subject matter is delivered during lessons:
„ICT helps the teacher to vary teaching methods and provides time and effort for student as
well as teacher.‟
(Interview Transcript 8)
Another common response here was the opportunity to provide real-life, applied, examples
of theoretical concepts applied in learning. ICT can enhance the opportunity to see visual
examples of the work they are undertaking, to enhance learning. Additionally, a more
traditionally conception associated with ICT is that it focuses the students attention and
increases interest in the subject matter undertaken – this is certainly the case in the
responses, with four occurrences in this code.
Standards and educational achievement is a common response, although surprisingly not
the highest with four occurrences. Some of the respondents see ICT as a valid method of
improving standards and outcomes for students:
„The best objective that I strive to achieve is to raise students‟ scientific and technological
level.‟
(Interview Transcript 5)
169
Question Codes Occurrences
3 QK 5
APP 4
ATT 4
STAND 4
VAR 1
CONF 1
ADMIN 1
TEAM 1
Question 4 – Are the students capable of using ICT during classes?
Overwhelmingly, the response to this question is positive about the ICT abilities of the
learners; in addition to the facilities they have access to in their home lives. For example,
one respondent describes the students abilities as ‘better than the teachers’ (Interview
Transcript 1), whilst another describes how they „…have not seen a single student who
does not have a computer at home’ (Interview Transcript 4). Other respondents describe
the constraints to students‟ use of ICT in the classroom, both in terms of the skills of the
teacher and the technology available:
„This depends on the type of technology used in the class and the teacher‟s ability in
class…‟
(Interview Transcript 12)
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Question Codes Occurrences
4 EXC 7
TEACH 3
PART 3
TECH 3
NUM 1
Question 5 – Have you noticed a change in the grasping capacity of the student while
using ICT in the educational process?
Respondents were overwhelmingly positive about the grasping capacity of students whilst
using ICT in the classroom. All 14 respondents fall into this coding, and many were very
positive about the experience of students in using ICT in the classroom:
„No doubt, the presence of ICT in the classroom is very useful for students…‟
(Interview Transcript 11)
Some of the respondents go further than simply describing the positive impact on students‟
grasping capacity. Others focus on the teacher‟s ability as a constraint, and others
emphasise that the use of ICT focuses students‟ attention, and raises interest.
Question Codes Occurrences
5 POS 14
TEACH 2
EDU 1
ATT 3
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Question 6 – Do you have comments, concerns or suggestions for the policy makers in the
Ministry of Education, or other teachers, about the ICT they use in the classroom?
In this part of the interviews, many of the respondents highlighted areas such as training
for teachers/teachers abilities in the classroom – „The Ministry of Education should hold
educational training for teachers…’ (Interview Transcript 6), the facilities associated with
ICT – ‘…improvement in the infrastructure of educational technology in schools’
(Interview Transcript 5) and the development of educational, or subject specific software –
‘We request the Ministry of Education to send for schools ready and advanced software’
(Interview Transcript 12).
Question Codes Occurrences
6 TEACH 6
QK 1
FAC 4
PART 2
SUBS 3
EDU 4
DIFF 1
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5.8.2 Developing Categories from Codes
Utilising the emergent codes from the research, categories have been created, as shown
below:
Figure 5.12: The Development of Categories from Codes
These categories were created by grouping the data into relevant areas. Given the nature of
the interview questions, some of these categories are more relevant to some questions than
others. However, these categories will be applied in answering the two key questions that
this element of the analysis considers in the next section.
5.8.3 Reviewing the Key Questions from the Research
Here we should remind ourselves of the original questions that we sought to answer,
namely:
• How confident are teachers in using ICT in the teaching and learning process?
• How do students use ICT in the classroom and at home?
19
7
33
13
17
21
7
0 5 10 15 20 25 30 35
VARIETY OF TEACHING APPROACHES
EFFIENCIES IN USING ICT
ICT TOOLS USED
MOTIVATIONAL CHARACTERISTICS OF ICT USE
TEACHING STANDARDS AND ICT
IMPACT UPON STANDARDS
ICT FACILITIES
Frequency of Categories
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Herein, in attempting to answer those questions it is necessary to consider (a) the responses
of teachers who were interviewed, (b) in the context of the responses offered by Directors
from the Ministry of Education.
• How confident are teachers in using ICT in the teaching and learning process?
It is clear from the emergent categories that teachers in the Kuwaiti classroom use a
significant variety of ICT tools as methods for teaching, including educational software,
the internet, the use of projectors and presentational software. This is recognised by the
Ministry of Education:
„They use computers, data show, some educational programmes....‟
(Interview Transcript, Director of Research in the Ministry of Education)
Some of the most common including the use of educational software developed by the
Ministry of Education and the use of Data Projectors. It is possible to infer that there is a
well-established link between the production of software at Government level and its
application in the classroom.
Additionally, there is considerable variation in the nature of teaching approaches utilised in
teaching with ICT – from workshops, to group activities to individual students utilising the
internet for research. From our coding, we have seen that the opportunities to improve
participation levels are a major concern for teachers in using ICT in the classroom.
Another category emerging from the data is the critical factor that teaching standards in
ICT plays, coupled with the need for an effective framework for teaching staff. Teachers
appear to be concerned that it is their ICT skills which are critical in delivering effective
outcomes, and therefore impacts upon their confidence in pedagological approach.
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How do students use ICT in the classroom and at home?
The data from the interviews may answer this in a number of ways. Firstly, the impact
upon standards as a category (formed from the positive impact of ICT and the actual
standard of ICT ability) commonly occurs throughout the responses. Teachers in the
classroom believe that students have good ICT skills and that this enables them to use it as
a vehicle to improve understanding. Furthermore, this is also the perception of the
Ministry of Education:
„The use of ICT reduces the difficulty and contributes significantly to the understanding of
the curriculum.‟
(Interview Transcript, Director of Educational Technologies in the Ministry of Education)
Further to this, there is also a perception that ICT improves understanding by motivating
students to learn, through an attractive and interesting interface. This is a historical
perception of ICT, as a learning tool:
„The ICT also helps students to focus on study and keep away from boredom.‟
(Interview Transcript, Director of Educational Technologies in the Ministry of Education)
Finally, in answering this question, the categories also show the consideration that
„efficiencies‟ gained by ICT use also impact upon the student and teacher, in terms of
allowing them to better prepare for lessons, deliver longer plenary sessions and generally
have more time to focus on the learning experience.
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6 Discussion
6.1 Introduction
In this chapter, the study considers the results from both the questionnaires and the
interviews, with reference to both the context of Kuwait and the relevant research
emerging from the literature review.
This discussion will follow the five main research questions, and utilise evidence from
both the qualitative and quantitative aspects of the analysis previously considered in
Chapter 5. At this juncture it is useful to remind the reader that there were four main
research objectives, which were originally shown in Chapter 1:
1. Investigate the difference that ICT makes to teaching and learning.
2. Explore how ICT affects teachers confident in the classroom.
3. Examine the teaching and ICT contributions to improving attainment – notably
students‟ perception of their attainment.
4. Investigate the advantages and disadvantages for using ICT in the classroom for
teachers and students in selected subjects in the curriculum.
These objectives were developed into research questions, which we can now attempt to
answer:
1. How confident are teachers in using ICT in the teaching and learning process?
2. Does this confidence and application vary between subjects?
3. How do students use ICT in the classroom and at home?
4. Are there any differences between students’ teaching and learning in public schools
and private schools in terms of their use of ICT in the classroom?
5. Are there any differences between male and female students’ teaching and learning
in terms of their use of ICT in the classroom?
All five of these questions are considered by the quantitative analysis involving the
questionnaires. The questionnaires were split between a questionnaire designed for
teachers (completed by a sample size of 331) and a questionnaire designed for pupils (with
a sample size of 308). Both samples were split proportionately across a range of schools in
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Kuwait, reflecting the geographical distribution, gender and specialism of the Kuwaiti
education system.
The student questionnaire, shown in Appendix 1 of this document, is split into three major
sections. Firstly, students were requested to make an assessment of their ability in a variety
of computer skills or applications. Secondly, they were requested to assess their use of
specific ICT related tools or activities in both the home and the school. Finally, they were
requested to give their opinion on the use of ICT in the teaching process, to provide an
insight into their perceptions of ICT on the learning environment.
The teacher questionnaire, shown in Appendix 2 of this document, is split into four major
sections. The teacher question is largely reflective of the student questionnaire. Firstly,
similar to that of the students, respondents were requested to make an assessment of their
ability in a variety of computer skills or applications. Secondly, they are requested to
assess their use of specific ICT related tools or activities both in the home and in the
school. Finally, and distinctly different from the student questionnaire, they are requested
to give the advantages and disadvantages of using ICT in the classroom, and assess the
impact of using ICT on the quality of their teaching.
The interviews undertaken (the transcripts from which can be seen in Appendix 3 of this
document) the interviews came in two major parts. Firstly, the researcher interviewed 14
teachers in primary and secondary education in Kuwait. Secondly, two Directors from the
Ministry of Education in Kuwait were interviewed – the Director of the Department for
Educational Technologies and the Director for the Department of Research. The
interviews for the teachers focused on the use and impact of ICT in the classroom, whilst
the interviews for the policy makers focused on the evidence of ICT use (and its associated
impact) in schools.
In the next sections of this Chapter, the researcher utilises the scales and analysis described
the previous undertaken in Chapter 5 to facilitate a detailed discussion into the major
questions outlined as part of the research. Where applicable, that discussion considers
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evidence from both the quantitative (questionnaire) analysis, as well as the qualitative
(interview) analysis, and attempts to relate any discussion to wider agreement in the
literature review.
In advance of discussing the major research questions, the use of independent variables is
now considered.
6.2 Use of Independent Variables
As previously discussed, the schools sample undertaken as part of the research is a broad
reflection of the educational „mix‟ in the country of Kuwait. The use of information on
independent variables is critical to the original research questions outlined earlier in this
Chapter. Namely, the research will focus on the differences between gender and ICT
use/impact, and similarly seeks to highlight any differences between public and private
education in the Kuwaiti education system.
Moreover, as Appendix 1, the student and teacher questionnaires show, the researcher is
also able to consider a number of other independent variables which will be adhered to in
the proceeding discussions. These include:
Subject specialism for teachers
Where relevant, the discussion make may use of these independent variable groups to
highlight any important points arising as a result of the data analysis.
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6.3 Research Question 1 - How confident are teachers in using ICT in the
teaching and learning process?
The first research question relates directly to the teacher questionnaire, and specifically to
two aspects considered within the questionnaire – namely sections two and three within the
teachers‟ questionnaire (Appendix 3). However, it is useful to consider further additional
aspects of the results associated with the responses from teachers, and as such this
discussion considers wider detail in attempting to answer the research question.
6.3.1 Teachers ability to effectively use ICT
Where teachers were requested to assess their own confidence in ICT use, the research
shows a consistently high level of response (in terms of confidence) to the various features
listed. For example, as shown in Table 6.1 below, the highest mean responses were
associated with basic tasks such as operating a PC, management of files, using the internet
etc (all with mean responses of over 4 where 1= Very unconfident and 5=Very confident).
The lowest responses were for activities such as designing web pages, use of packages
such as Photoshop or flash and publishing a personal blog. These results are as what the
research might expect to see, given some of the specialist knowledge an individual would
require to be very confident in some of the more „difficult‟ activities listed. The researcher
allocated a high, medium and low banding to the arithmetic mean associated with the
results, whereby high is between 3.68 and 5, medium is between 2.34 and 3.67 and low is
between 1 and 2.33. According to this banding, 10 of the 20 ICT activities were rated by
respondents as „high‟ and the other 10 as „medium‟.
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Table 6.1: Teachers Confidence in ICT
ICT Feature Mean Level of Use
Basics of operating PC (using keyboard, mouse …
etc.)
4.59 High
Managing files (delete, move to, … etc.) 4.44 High
Searching for information on the Internet 4.3 High
Internet browsing 4.25 High
Using word processor ( such as word program ) 4.23 High
Searching for saved data on hard disk or compact
disk
4.13 High
Downloading files from the Internet 4.11 High
Using Email ( reading and sending mails) 4.08 High
Using PowerPoint software 3.86 High
Using data show basis on PC as projection tool 3.74 High
Deleting or editing pictures, animations or movies 3.6 Medium
Using chat rooms and forums (Facebook, Twitter) 3.6 Medium
Combining files from different resources (sound or
video files ) to create presentations
3.59 Medium
Using digital camera 3.53 Medium
Use spreadsheet processor (such as excel program ) 3.5 Medium
Producing learning software 3.2 Medium
Creating or Using data base processor (such as
access program)
3.09 Medium
Publishing a personal blog 2.84 Medium
Using different designing programs (Photoshop,
Flash)
2.78 Medium
Designing web page or personal site 2.69 Medium
N=331
An interesting feature of the results is the movement of the standard deviation against the
arithmetic mean shown by the 20 aspects of ICT that teachers self-assessed against. For the
ICT features that respondents rated themselves as most confident – i.e. „Basics of
Operating a PC‟ (mean = 4.59), the standard deviation is conversely the lowest (s.d. =
0.863), or rather 68% of respondents were within 0.863 of the mean value in this instance
(and similarly 95% were with two standard deviations or 1.725). As we move down the
scale to more „complex‟ tasks, the standard deviations increase, implying a more widely
distributed response from the teachers in terms of their confidence. However, as we reach
the most „complex‟ tasks, the data shows a slight drop in the standard deviation of the
results. I.e. the suggestion is that for the most complicated tasks there is less variability in
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light of the specialist nature required. For the more „intermediate‟ tasks, there are high
levels of variability in the responses. This is perhaps expected given the nature of the 5
point scale adopted as part of the research, and the results are depicted in Figure 6.1 below.
The „categories‟ can be seen in the teacher questionnaire within Appendix 2 of this
document.
Figure 6.1: Arithmetic Mean against Standard Deviation for Confidence in ICT of
Teachers
Regardless of the variability in responses, the results displayed here are reflective of what
the researcher would expect to see from a self-assessment on those particular ICT features.
These results, in some cases, exceed those displayed in other studies, for example Al
Shaweesh (2010), whereby Teachers were excellent in mastering the use of computers and
managing files with an arithmetic mean amounted to 3.39 out of 5.00. Similarly, for
Abdullah (2012) were means were significantly lower than the results displayed within this
research. However, the researcher recognises the distinction between self-assessment and
other forms of measuring tools.
0
0.5
1
1.5
2
2.5
3
3.5
4
4.5
5
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Arithmetic Mean
Standard Deviation
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6.3.2 ICT Use in Practice
Having depicted a positive picture of teachers‟ own perceptions of their ability through
self-assessment, it is now useful to attempt to develop the impact on their teaching styles
and the impact upon using that ICT in actual teaching practices. For this purpose, the
original questionnaires requested teachers to assess how much they used ICT in the home
and how much they use ICT in the classroom. This ranged from Never (=1) to Daily (=5)
against 15 aspects of ICT.
The results showed us that those areas where one might expect a teacher to use more at
home (i.e. Use the internet to obtain teaching resources or create a document using a word
processor) had higher arithmetic means that those that the researcher may expect to show
high levels at school (i.e. use of an interactive whiteboard). This is consistent with the
expectations of the research.
Focusing on the application of the ICT tools in school use, the results show that the most
consistently utilised functionality was around computer management (looking up
information on a hard disk drive or CD) with a mean of 2.91 and using the internet to
obtain resources with a mean of 2.79. Perhaps the most startling initial feature of these
results is that there are significant numbers of „Low‟ scores, based on our previous
interpretation of the arithmetic mean results. For instance, the use of interactive
whiteboards, software to monitor student attainment and participation in on-line bulletin
boards all had arithmetic means below 1, with the modal group being „never‟. This
immediate distinction between the confidence of teachers previously discussed goes
against some research, whereby confidence in ICT ability is suggested to lead to action, for
example in Ward and Parr, 2010 or Nico, Ruttena and Wouter, 2011.
The low use in tools such as interactive whiteboards is considerably surprising; especially
in relation to existing research such as Zaylie (2007) who describes the use of them as
„embedded‟ in common teaching practices. Similarly, the use of subject specific software,
with a mean score of 2.37, we might expect to see as higher given existing research
describing its use, such as Al-Mustafa (2000) or Al-Hadlaq (2003).
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The data from the interviews is contradictory to those displayed in the questionnaires, for
example, educational software and projector use were two of the highest occurring
categories shown in the analysis in response to the question, „What kind of ICT do you use
in the classroom?‟. Moreover, a director from the Ministry of Education comments that
teachers use a variety of „…computers, data show, some educational programmes…‟
(Interview Transcript, Director Research in the Ministry of Education). Although this is
not a frequency-based question, the researcher might still expect greater consistency
between the highest recorded categories in the interview analysis, to the quantitative data
analysis.
6.3.3 Perceptions of the Impact of ICT on Teaching Styles and Pedagogy
In light of the discussion thus far, the research can be begin to paint a fuller picture of the
skills and employed of various element of ICT in the Kuwaiti classroom. In response to the
original research question, the research now looks more specifically at the impact of that
ICT use on teaching styles and pedagogy in the Kuwaiti classroom.
Interestingly, teachers in Kuwait are favourable with regards to the potential impact that
ICT can make to their teaching styles. On a four-point scale when asked to evaluate the
extent that ICT in teaching changes their teaching methods , where 1 = no change and 4 =
high level of change, the arithmetic mean for all respondents is 2.68. This is consistent
with research offered by Kennewell (2007) and Morrisa (2011).
Of course, it is fundamental such that teachers need to be convinced of the need to
effective apply ICT in the classroom, to actually undertake the training and development
associated with implementing it. In the research, teachers were requested to move from
evaluating the overall impact of the use of ICT to be more specific about the advantages
and disadvantages associated with ICT use in the classroom. Here, the research requested
teachers to agree or disagree with a series of statements, on a five point scale.
Here the results provide a greater insight of the impact upon pedagogy. The statements
most agreed with by teachers include those related to motivational and visual aspects (ICT
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makes teaching more interesting for me, ICT improves the presentation of material in my
lessons, ICT makes the lessons more fun for the students all rated with arithmetic means
greater than 3.5). This is a reflection of numerous research studies such as Cox (1997),
Bullock (2001) and Denning‟s (1997). Additionally, the economies of utilising ICT in
preparing for teaching is also reflected – for example, finding it easy to think of ways to
use ICT in teaching rated highly, with an arithmetic mean of over 3.96.
The „disadvantages‟ associated with ICT in teaching are a reflection of the generally
positive attitude of the respondents. Only disruption of lessons due to problems with
hardware or software (with an arithmetic mean of 3.09 and a modal group of „Neither
agree nor disagree‟ showed any notable presence in the responses. For example,
statements such as „ICT makes teaching more difficult‟ and „ICT decreases students‟
motivation‟ held arithmetic means of 2.21 and 2.34 respectively, and were in modal groups
of „Disagree‟ and „Strongly Disagree‟.
Respondents in the teachers‟ questionnaire were equally positive in terms of the question
(see Appendix 2) where they were asked to assess the ways in which ICT affects them as a
teacher. These included issues perhaps more pertinent to pedagogy, such as the role as the
impact of ICT on the learning climate, the role of the teacher, relationships,
professionalism and interaction between students. In all aspects of this part of the
questionnaire, the mean average was over 3.5 – with „ICT positively changes the learning
climate in my classroom‟ the highest with a mean of 3.87 and a modal group of „Agree‟.
As an example, the positivity relayed by the respondents in relation to the statement „ICT
enhances my role as a leader‟ is reflective of the findings shown by Kennewell (2005).
Similarly, in the context of the learning climate, the results from the research here are
consistent with that of Al Suba'ie (2002).
With regards to the impact on teachers‟ pedagogy in the classroom, the research associated
with the interviews perhaps allows us to glean more than the quantitative analysis. In
respect to Question 1 as applied in the interviews (What kind of ICT do you use in the
classroom?) the research shows that projector hardware and education software (typically,
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subject specific) dominate. In relation to projectors, the most relevant software includes
presentational applications such as MS PowerPoint. Notably, the use of subject specific
software, such as packages provided by the Ministry of Education in Kuwait, is also
prevalent in this area.
Question 2 focused on the teaching methods utilised to integrate ICT in the classroom, and
is more directly linked to pedagogy. Here, perhaps most distinctly linked to the
constructionist principle, we see ties to „participation‟, „teamwork‟ and „educational
software‟. It would appear that the respondents see ICT as an enabler of increased levels
of participation in the learning environment:
„cooperative education with the use of ICT helps the teacher to explain his subject and
makes all student participating in the educational process…‟
(Interview Transcript 7)
Whilst the ability of ICT to develop interactivity and responsiveness within a classroom
setting is agreed upon by a range of research, for example in Hargreaves (2010) or
Kennewell (2007) it is clear from responses such as this, that the use of ICT has moved
from being a focus of the interaction, to a tool which allows higher levels of interactivity to
take place, as advocated in research such as Beauchamp (2011) or in Smith et al. (2005).
The interactivity enabled by the use of ICT is moving from a „technological‟ one to a
„pedagogical‟ aspect.
It is also clear from the coding in the interviews that the use of ICT is enabling more
practical and „hands-on‟ approaches to learning, specifically in relation to providing real-
life examples through the use of educational software provided by the Ministry of
Education in Kuwait. For example, this is supported by the findings of Al-Sanee (2012).
We must however, recognise that this is based on a small sample of teachers (14) and that,
as summarized in many research papers, the use of specific software packages and the
success of implementing them is firmly linked to the confidence of the practitioners
implementing them.
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The other major method than interviewees reported was that of increased use of teamwork
or group activities as a result of the implementation of methods involving ICT. Again, this
points to a constructivist notion, whereby increased the teaching methods promote
increased „dialogue and discourse‟ (Gould, 1996).
„Mostly I use team projects, lectures and sometimes self learning. I use team works as it is
very suitable and interesting for math classes and I use only one computer for each team.‟
(Interview Transcript 4)
Teachers who participated in the interviews were also asked about the objectives that they
sought through the integration of ICT in their classrooms. Whilst there were common
„efficiency‟ type objectives, we can also see from the coding that again the opportunity to
offer real-life examples of the work is relevant in this area. Here however we see a
contradiction from some of the teachers involved in the interviews. Whilst, as discussed
previously, the interviews suggest that teachers are witnessing the movement towards
pedagogical enhancement through ICT we still observe here a concerted opinion that the
motivation of teachers through using ICT is to increase „attention‟ – a more traditional
view of the benefits of utilising ICT in the classroom.
There is clear an overall response which is generally positive about the impact of ICT in
the classroom, with the issue of raising standards reported by a number of interviewees in
their objectives for ICT use. Similarly, and anecdotally, teachers are positive about the
impact of ICT use in their classroom – and thus we can infer that, given available and
appropriate ICT facilities, they would surely be influenced in their choice to use them, and
moreover the teaching styles employed in their lessons:
„No doubt, the presence of ICT in the classroom is very useful for students…‟
(Interview Transcript 14)
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6.4 Research Question 2 - Does this confidence and application vary between
subjects?
The original research question of „How confedent are the techers in using ICT on teaching
and learing?‟ stipulated that the research would investigate the differences in this question,
associated with the subject specialism associated with the teachers responding to the
questionnaire. The analysis shown in the previous chapter adheres to this, highlighting the
results broken down by teachers‟ responses across all major elements of the questionnaire.
Here we consider and interpret each of those major components of the questionnaires in
turn.
In terms of the teachers‟ confidence in their ICT use, we can see a considerable difference
in the results broken down by subject, with English, Arabic, Science and then Mathematics
specialism‟s the „general‟ order of the results in most cases. English teachers are broadly
more confident in the use of ICT, in a classroom setting or otherwise, than the other
subjects.
This is an interesting finding. Commonly, it could be interpreted that teachers of
mathematics and science might be more likely to have higher ICT skills than teachers in
the languages, given the often technical nature of ICT use. However, it is possible also to
suggest that teachers of languages such as Arabic or English are perhaps more confident of
their own ICT use, whilst not necessarily being more technically proficient.
Even in areas such as „creating or using database processors‟ such as MS Access, English
teachers are more confident in their ICT use than their mathematical counterparts. Some
areas, such as the „Use of Word processor‟ we might expect to see a higher response from
English teachers, but others are unexplained.
There is little in the literature or theory to describe why these two languages might have
greater ICT ability than their more scientific/technical counterparts. As such, the researcher
might seek to infer that this distinction is down to their interpretation of the questionnaire
187
and the confidence they have in their own ability, notably for the nuances in using areas
such as databases, as described above.
The use of ICT in schools was examined next. Here, the breakdown by subjects shows a
slightly different pattern than the confidence in ICT. Science teachers across the range of
ICT aspects are far more likely to use ICT in schools, with mathematics teachers the least
likely to. English and Arabic teachers fluctuate across variables in terms of rank order.
Studies such as Scardamalia and Bereiter (2000) or Al-Omar (2001) suggest that the use of
ICT in Science can be particularly rewarding and beneficial to the students involved.
Science offers significant opportunities to utilise some of the major benefits of ICT in
schools – as an example highlighting real-world examples – as described in much of the
research, including the work of Scardamalia and Bereiter (2000) in developing knowledge-
supporting material or the use of videos or digital media to evidence things which cannot
be effectively shown in the classroom – Al-Mustafa (2000).
The results shown here are also at odds with the results described in some of the research.
For instance, that of Al-Hadlaq (2003) who suggested that few science teachers use ICT
other than animation or word-processing applications. As an example, the highest mean
for „Create lessons that incorporate simulation software‟ was for science, and similarly for
using the internet, setting homework and using subject-specific software.
Even in areas that we might not necessarily expect science teachers to use ICT more so
than others, significant differences are shown. „Using software to monitor the students‟
scores‟ is one example, with an arithmetic mean of 2.13 in comparison to English (1.94),
Arabic (1.92) and mathematics (1.65).
As already discussed, teachers ICT use at home is broadly higher than their ICT in schools.
This „gap‟ is evident when the data is broken down into the four subjects. Here, the
analysis shows far less variability in terms of the subjects, with less significance shown in
the T-test results. This points to a more consistent level of ICT use and (inherently)
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capability when in the home, but a greater application in science, and lesser application in
mathematics, when in a school setting.
Very few of the variations in mean are significant in comparison to the other elements of
the survey. Only four areas showed significance in the variation of means, broken down by
subject. These were „Using the internet to obtain teaching resources‟ (English with the
highest mean at 3.79), „Set computer-based homework‟ (Science with the highest mean at
3.11), „Use email to communicate with other teachers‟ (English with the highest mean at
1.84) and „Use interactive whiteboard‟s (Mathematics with the highest mean at 1.72).
Setting computer based homework could possibly refer to the availability of online-
resources in Science and perhaps the more investigative nature of the subject. The result
for using email to communicate with other teachers perhaps is intuitive given English
teachers‟ perceived ability as communicators. The other two categories are far more
difficult to explain – it is the opinion of the researcher that possibly teachers of
mathematics are more likely to use interactive whiteboards to prepare for lessons, whilst
English teachers are more likely to use the internet, and conscious of the role that the
internet can offer in improving the curriculum.
Teachers were also invited to agree and disagree with statements made in relation to their
experience of using ICT in teaching. In this instance, only two statements showed
significant variation in the mean responses when broken down by subject.
In responding to the statement „I find it easy to think of ways to use computer in my
teaching‟ the significant variation stems from the fact that mathematics teachers were more
negative about the statement. Again, this ties in with the fact that mathematics teachers are
less likely to use ICT in schools. Similarly, the statement „ICT makes teaching more
interesting for me‟ also shows mathematics teachers being less favourable in their
responses; highlighting the fact that they are less likely to implement ICT measures in the
classroom.
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At a more macro level, when combining the separate elements of the questionnaire into
variables, we ding that it is the use of ICT that is most explained the subject specialism.
Confidence appears to differ more significantly at a specific applicstion or task level,
whilst use of ICT varies more across subjects when considered as whole.
6.5 Summary of Teacher Analysis
The results from the teachers‟ perspective, in terms of answering the first and second
research question, offer a number of incites. These include:
1. Teachers are broadly confident about their use of ICT and its applications.
2. In spite of their confidence, their use of ICT to influence teaching methods, both at
home and at school is relatively low, which is especially surprising in established
areas such as the use of Interactive Whiteboards.
3. The use of ICT is met with positivity from teachers, contradictory to its actual
implementation and application.
4. When ICT is used, some teachers believe that it encourages more constructivist
approaches in the classrooms and increases the diversity of pedagogical approaches.
5. English teachers are more confident in their use of ICT, whilst science teachers are
more likely to employ ICT in the classroom. Teachers of mathematics are less likely
to be either confident in ICT use or apply methods using ICT, or believe in its value.
These findings take us some way to answering the two questions „How confident are
teachers in using ICT in the teaching and learning process?‟ Does this confidence and
application vary between subjects?as we find a situation in Kuwait whereby clearly ICT
offers positive impacts on teachers‟ pedagogical approaches, encouraging a more modern
and constructivist environment, yet its application is low, and variable across subjects. In
spite of positive attitudes from teachers, there exists a „gap‟ between skills and application,
which the next Chapter attempts to address.
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6.6 Research Question 3 - How do students use ICT in the classroom and at
home?
Students‟ perceptions of ICT and the impact on their learning are considered through the
two major evidences sources undertaken as part of the research. In this section, similar to
the first, the research considers the major areas emerging from the research.
6.6.1 Using ICT at School
Students were requested to assess their exposure to ICT use in schools. From the results,
we can see that ICT use in Kuwaiti schools as reported by the students is very
disappointing. All bar one of the responses received a modal group response of „Never‟,
with the only result response which gathered a modal group result higher than „Never‟ was
designing websites, and the mean average of all the responses was lower than 2.5,
something we classified as a „low‟ in the definitions contained within the research. This is
considerably at odds with the perception of ICT use of the researcher and broadly the
intimation of much of the research and literature surrounding ICT use in schools across the
world, and certainly in wealthy countries such as Kuwait.
The order of responses is also surprising – for instance, the second highest mean average is
in the category „I browse the internet for fun‟, which has a mean average of 2.42 and 29%
of respondents claimed that they did this on a „daily‟ basis. This is something the
researcher would not expect students in Kuwait to be undertaking, in schools, on a daily
basis – whilst it is clearly something they would be more likely to do in the home.
Similarly, „I play games‟ on the computer ranks as the 5th
highest response of the 20 feature
listed. Whilst the questionnaire did not distinguish between recreational and educational
games, as in Al-Ghamdi (2010), it is still surprising to see this ranked as highly as it did.
Some of the lowest scores are attributed to aspects of ICT that we might perceive to be
more widely used in the classroom. For example „I use some spreadsheets‟ had a mean
average of 0.87 and a modal group of „Never‟, also „I use the internet to look up
information‟ fared even worse with a mean average of 0.78 and also a modal group of
„Never‟.
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6.6.2 Using ICT in the Home
Significantly, ICT use in the home is considerably rates considerably higher than ICT use
in schools. Across the spectrum of ICT functions students were asked to assess themselves
by, ICT use in the home has a higher mean average score. Figure 6.2 below highlights the
considerable „gap‟ between Home and School use.
Figure 6.2: ICT use in the Home versus School
This gap was pre-supposed to have existed at the onset of the research. However, the
results shown here are quite surprising. Even in tasks that the researcher might expect to be
higher in the school environment, the mean average of school use remains lower. For
example, functional areas such as „using educational software to learn some lessons‟ is
higher in the home (1.54 mean) in comparison to school (1.35). Similarly, the use of some
„spreadsheets‟ is higher, with a mean average of 1.34 for home use and 0.87 in schools.
The magnitude of the difference here is quite high, and harks back to the original premise
of the Kuwaiti Government‟s strategy, whereby bridging the gap between home and school
use of ICT was one of the fundamental aims.
From the perspective of frequency of ICT use in the home, students suggest that they most
frequently use ICT for fun, over and above homework or other learning type activities.
0
0.5
1
1.5
2
2.5
3
3.5
4
1 2 3 4 5 6 7 8 9 10 11 12 13 14 15 16 17 18 19 20
Home
School
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This is not a consideration of the research, and is expectedly a social norm in most
advanced countries.
6.6.3 Students’ perceptions of ICT in the teaching/learning process
The fundamental aim of this specific research question is to investigate students‟
perceptions of ICT in the learning process, and therefore students were invited to
agree/disagree (1=Strongly Disagree, 5 = Strongly Agree) with a series of statements
associated with the use of ICT in the and how it impacts upon their learning. From the
results, we can see range of responses with „I enjoy lessons with computers‟ (3.95) to
„Computers scare me‟ (1.99), all of which are notably positive in their response.
Notably, in this aspect of the results, the standard deviation is quite high – with the
aforementioned categories having a standard deviation in responses of 1.135 and 1.263
respectively. Students enjoyment of lessons with computers can be related back to the
literature quite clearly, for example through researchers such as Cox (1997) and Bullock
(2001), again re-iterating the „technological‟ aspect of motivation as opposed to a
„pedagogical‟ one.
Perhaps the most important result shown here is from the aspect „ICT is very helpful in my
learning process‟, where students are in some way assessing the impact of ICT in teaching
and learning. Again, students are positive with a mean average of 3.81. Again, this should
be put into context with the variance in response – a standard deviation of 1.190.
It is notable that a number of the more „negative‟ statements still received relatively high
responses, „I find it time-consuming using ICT in learning‟ is one such example, with a
mean average of 2.63. In spite of having a modal group of „Strongly Disagree‟, this feature
was rated as „Strongly Agree‟ or „Agree‟ by over 27% of respondents. These findings are at
odds with researchers such as Ahmed (2012), who suggest that ICT saves time in the
teaching and learning process. Here, we can see that many respondents believe that ICT
actually takes more time in learning, and is thus obstructive to the learning process itself.
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Another example highlights the „gap‟ between ICT use in the home and in the school is the
aspect „I know how to use ICT but am not interested in using it to learn‟. This differential
between home and school based ICT use, as highlighted in previous sections, is evidenced
by a mean score of 2.85, with 33% responding with „Strongly Agree‟ or „Agree‟. Here, the
research is showing evidence that potentially this gap is not simply caused by unavailable
resources or teachers‟ lack of ICT utilisation, but also a lack of will from the students in
participating in , and effectively using, ICT in the teaching and learning process.
Another negative statement which stands out in the responses is „I have better information
sources than ICT‟ in reference to students utilising other resources (for example, books or
libraries) than ICT. The mean average response to this statement was 2.88, with the modal
group of „Undecided‟ with over 32% of respondents saying they either „Strongly Agree‟ or
„Agree‟ with the statement. How this is interpreted is debateable – it could be argued it is a
good reflection of the facilities available in Kuwaiti schools, or a poor reflection of
students‟ abilities to harness the internet. In the digital age, and given the results discussed
in terms of students‟ ICT confidence, then it is possible to infer that this negativity is linked
more closely with the former of these two.
6.6.4 Students Confidence Level in ICT Use
Students were invited to rate their confidence against two ICT features, similar to the
teachers questionnaire. The results here are very positive, with a majority of categories
rating as „high‟ in accordance with the criteria developed by the researcher. Indeed, only
three categories had a modal group other than „Very confident‟ – these were „producing
learning software‟, „publishing a personal blog‟ and „designing a web page or personal
site‟. These are amongst the most technical features listed and as such it is what we might
reasonably expect to be shown in the results, and are perhaps more applicable for teachers
as opposed to students.
The standard deviation of some responses is quite high, with „Basics of operating a PC‟
having a standard deviation of 1.317 away from the mean response of 4.22. Also, „Using
chat rooms and forums‟ had a standard deviation of 1.238 away from the mean of 4.11.
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The overall positivity in response to this part of the questionnaire is what we might
reasonably expect from the use of ICT by younger people in society today. Students are
exposed widely to ICT use in the home and everyday life, in addition to any exposure in
schools. Where many of the activities are inherently more technical than others, we can see
a drop in responses, as the researcher would anticipate. This is widely reflective of the
qualitative data taken from the interviews of teachers. For example, one of the teachers
describes the students as „better than the teachers‟ (Interview Transcript 1) and another
highlights the fact that they have not seen „…a single student who does not have a
computer at home (Interview Transcript 4).
6.6.5 Summary
The results from the students‟ perspective, in terms of answering the third research
question, offer a number of incites. These include:
1. Students are very critical of their use of ICT, reflective of the teachers‟ application
of ICT, notably in features the research would hope to be utilised more, such as
spreadsheets or use of the internet to look up information.
2. Considerably more use of ICT, even in a learning context, is actively undertaken in
the home, which still points to the prevailing gap between home use and application
in the classroom.
3. Students are positive, to an extent, about the application of ICT in the classroom and
its impact on their learning. However, there are still considerable reservations about
the use of ICT and a belief amongst students that it can negatively impact their
learning.
4. Students are extremely confident about their ICT use, similar again to teachers,
which highlights the potentially wasted opportunity that the lack of ICT provision
highlights.
These findings take us some way to answering the question „How do students use ICT in
the classroom and at home?‟ notably that there is conceivable evidence to suggest there is
certainly capacity from students (in addition to that from teachers highlighted in the last
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section) to utilise the full scope that ICT can offer. This has to be married with the
existence of criticisms relating to the impact of ICT, which we will further discuss in the
next chapter.
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6.7. Research Question 4 - Are there any differences between students’ teaching
and learning in public schools and private schools in terms of their use of
ICT in the classroom?
Whilst in the previous section the research examined the overall perceptions of students of
ICT use and the impact on learning, we now focus on the split between public and private
schools in terms of the original research question that asks „Are there any differences
between students teaching and learning in public and private schools in terms of their
exposure to, and use of ICT in the classroom?‟. The analysis associated with this question
is shown in section 5.5 of this thesis. It should be noted at this stage, that there is a genuine
lack of notable research in this area, in terms of the literature, and therefore much of the
interpretation here is based on the opinions of the researcher.
The first notable finding of the results is associated with the students‟ use of ICT in school.
Here, from the results we can see, across all categories of ICT, that public school students
are far more likely to use ICT more regularly than their private sector counterparts. This is
interesting; as it might be possible to perceive that private schools would have more access
to funds than public (state funded) schools and therefore would have better use of the
technology. There are a number of possibilities that could explain this difference.
It could be the case that public schools have more ICT facilities available to them, and
spend a greater proportion of their resources on ICT. Alternatively, teachers in public
schools may take more opportunities to embed ICT into their teaching, thereby exposing
the students involved to greater use. Finally, it could be that students in public schools have
a different perception of the frequency of use of the categories – i.e. they may interpret the
meanings of daily/weekly/monthly differently, although this is unlikely.
It is the opinion of the researcher that the reasons for this gap is that the teachers and
schools in the public sector are more open to ICT use. It seems unlikely there is a
significant difference in the availability of ICT, given the relative wealth of Kuwait as a
state and similarly the affluence of the private sector. It is possible that due to the increased
pressure of a fee-paying environment, schools and teachers are less likely to experiment
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and provide opportunities for ICT use in the classroom. It is possible that the ICT capacity
of schools, i.e. what resources they actually have, could be a further line of research.
In terms of ICT use in the home, the research shows that broadly private school students
are more likely to use ICT more often that those students from public schools. This is
expected, given the relative wealth of private school individuals. However, it may be more
to do with concerns of parents, and a focus on using ICT to develop their skills and
education. However, this is contradictory to the supposition that private schools are less
likely to employ ICT in the classroom, due to „parent-pressure‟ or being more results
driven. Looking more closely at the results, there is no discernable pattern shown in terms
of differences between the public and private school students. Public school students, for
instance, are more likely to „shop on the internet‟, „make films or animations‟ but private
school students are more likely to „play games on the computer‟. In a more academic
sense, public school students are more likely to „use spreadsheets‟ whereas private school
students are more likely to use „educational software‟.
In combining the various elements of the questionnaire, in terms of use of ICT, the results
again supported the fact that students from public schools used ICT more than their private
school counterparts, although this was a more marked difference in the ICT use at school,
in comparison to ICT use at home.
The next element of the analysis is concerned with students‟ perceptions of using ICT in
learning and teaching. Here, the research shows another notable gap between public and
private school students. Notably, public school students were more likely to disagree with
the positive statements and similarly more likely to agree with the negative statements.
Public school students are less likely to be positive about their experiences in using ICT in
schools. This is in contrast with the volume of ICT they respond to using in schools.
The fact that public school students are less favourable than their private school
counterparts could be for a number of reasons. Potentially, it could be down to the quality
of teaching and the skills that the teachers possess in successfully embedding ICT into the
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curriculum. Alternatively, it could be due to the expectations of the public school students
being higher than private schools, although this is unlikely given that private school
students are more confident in ICT use and as such we might reasonably expect to be more
demanding of the teachers. It is the opinion of the researcher that this is linked to the
quality of teaching and the application of ICT than anything else – this again is a notable
are for further research.
Students were finally invited to assess their confidence in ICT use against a number of
categories of ICT use. Here, the results show a significantly more confident response from
private school students that their public school counterparts, with an almost a uniform
„gap‟ across all categories in the responses. The only exception being for „producing
learning software‟ – which is not necessarily a skill that we might expect secondary school
students to have mastered. This finding is also supported when combining the individual
elements of the questionnaire.
These results are a reflection of the home use of ICT by private and public school students,
and the consistent gap in the results for that area. It is also interesting to compare these
results with the positivity shown by the students in terms of the impact of ICT on their
learning. In fact, it is the opinion of the researcher that the relative positivity shown by
private school students in terms of the impact of ICT use, is a reflection of their confidence
in using ICT, and that more highly skilled students will benefit more from ICT use in the
classroom; the same truth could be said of the teachers‟ ICT skills (Ward and Parr, 2010).
In summary, the significant differences shown here between public and private school
students are:
1. Students from public schools are very more likely to be exposed to ICT use in the
classroom than their private school counterparts.
2. Students from private schools however, are more positive about the impact of ICT
use: potentially pointing to the dangers of over-use, or even that teachers are failing
to successfully use ICT in teaching and learning.
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3. Public school students are less confident about their own use of ICT than private
school students. Private school students increased confidence could be an
explanation of their beliefs and values about the impact of ICT use in teaching and
learning.
Again, this section brings us closer to answering the research question „Are there any
differences between students‟ teaching and learning in public schools and private schools
in terms of their use of ICT in the classroom??‟ where we have described a situation where
fundamentally (a) public school students use ICT more, but (b) are less positive about the
impact of ICT on their learning. This brings an interesting conundrum – is using too much
ICT bad for our children‟s‟ learning?
Fundamentally, this question is dependent upon the appropriateness of that ICT use – the
use of technology for its own sake or for valid and pedagogical reasons – and the research
explores that theme in the next chapter.
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6.8. Research Question 5 - Are there any differences between male and female
students’ teaching and learning in terms of their use of ICT in the classroom?
The final key research question outlined in Chapter 1 focuses on differences between the
genders in relation to their expose to, and use of, ICT in the classroom. Similar to the last
section, and the corresponding analysis, the research now sets out the student
questionnaires broken down by male and female respondents. Here, considerably more
research and literature exists, as documented in the literature review of this thesis.
Students were firstly invited to describe the frequency of their ICT use in school. Here, the
results are inconclusive, with variations in the mean showing higher results for male and
females across the various elements of ICT use. Only two elements of ICT based
provision show significant results – one in favour of males (finding information on hard
disks and CD ROMs) and the other for females (I shop on the internet). It is evident from
the results that there is no profound difference in the school-based ICT use of male or
female students.
Students were then invited to describe the frequency of ICT use in the home. In this
analysis, only one element of ICT showed any significant variation in the mean – namely
that of „I shop on the internet‟ – an activity with females performed more frequently than
boys. The lack of variability in ICT use is supported by theorists such as Liao (1999), but
in contradiction to research such as Whitley (1997), Boser, Palmer & Daugherty (1998 or
Bame et al. (1993) who describe a situation whereby males generally are more interested in
ICT than females.
In terms of students‟ perception of the impact ICT use, there is again no significant
difference between male and female students in the research. Once more, the t-test results
show no significance at 95% confidence levels. This finding is supported by the work of
researchers such as Vekiri (2010), who found no difference in students‟ perceptions of ICT
use.
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Finally, students were invited to assess their confidence in ICT use. The results showed a
broad trend of higher average means (i.e. greater confidence) for females than males. This
is a result that surprised the researcher, as traditionally we might expect male to have more
confidence in their ICT use than females (Hill, Loch, Straub and Elsheshai, 1998) or at
least they would be at equivalent levels (Vekiri, 2010). It is significant that this research
shows higher values for females than males and it is the opinion of the researcher that this
represents a significant shift in thinking and theory associated with the gender „gap‟ in ICT
use.
In summary, the significant differences shown here between male and female school
students are:
1. There is no discernable difference between male and female students in terms of
ICT use in schools or in the home.
2. There is no discernable difference in terms of any impact on their learning.
3. Female students are more confident than their male counterparts.
Finally, this enables the research to answer the question „Are there any differences between
male and female students‟ teaching and learning in terms of their use of ICT in the
classroom?‟ Whilst no significant differences exist, the interesting conclusion from the
research is that female students are now more confident (a trend that has reversed over the
last two decades) than their male counterparts. In spite of agreement over impact on
learning, it is clear that if greater reliance upon methods involving ICT is to be embedded
in Kuwaiti educational culture, that any gap between the sexes will have a negative impact
on the weaker genders‟ learning. This finding this supported when considering the
individual questions combined, and proved through the implementation of a Mann-
Whitney test, to be significant.
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7 Conclusions and Recommendations
7.1. Introduction
This chapter summarises the research and thereafter attempts to make recommendations
associated with those findings. This follows the two preceding chapters, the analysis and
the discussion, in considering each of the key questions in turn. Similarly, the
recommendations will be based on the findings associated with each research question.
Additionally, the chapter investigates the limitations associated with this piece of research
and proposes areas of further study for the researcher, or indeed other researchers in this
field.
The main question of this research was: „A Study on the Scale and Nature of ICT use in
Secondary Classrooms in Kuwait‟. The researcher then derived five sub-questions, all of
which were addressed through the questionnaire (and quantitative) analysis, and the first
two of which were suplemmented by the use of interview (and qualitiative) analysis.
7.2. Research Question 1 - How confident are teachers in using ICT in the
teaching and learning process?
Teachers‟ responses reflect a general confidence in ICT use, especially for the most basic
and intuitive PC tasks. According to the classification used by the researcher, over half of
the ICT skills or applications listed were rated as „high‟, with the remainder rated as
„medium‟. Those skills which rated worst were the ones that we would most likely expect
to see, tasks which are far more technical in nature. The overall mean for all the tasks was
3.71, which means that they were close to „confident‟.
Teachers‟ use of ICT in both the home and school is low, with a mean average of 2.31
(between occasionally and monthly) in the home and 2.26 in the school, describing their
use of ICT in preparing for teaching practice and school-related activities. The results were
reflective of what we might expect from home based ICT use in addition to school based
ICT use. For example, they are more likely to „use the internet to obtain teaching
resources‟ at home and „use an interactive whiteboard‟ at school.
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Whilst low levels of ICT use in the home may be a comment on teachers‟ dedication to the
role, or expectations from the schools on them, the low levels of use in schools is startling.
As used as an example in chapter 6, the modal group of „never‟ to describe the use of
interactive whiteboard provides a glimpse into the failings of the Kuwaiti education system
to embed such „standard‟ ICT tools such as this into their system. Whilst some of these
results are at odds with the findings of the interviews, albeit the low numbers of
interviewees may be a less reliable measure of the findings than the questionnaires.
In spite of teachers‟ lack of ICT use, they are quite positive about the potential impact of
ICT, and the advantages of using ICT. In terms of potential impact, a mean average of
respondents of 2.68 (between „a little‟ and „somewhat high‟) described the extent they
believed ICT changes their teaching methods. This clearly describes a situation where
teachers believe ICT can change the nature of learning in the classroom, for good or bad.
When invited to contextualise the nature of that impact, teachers were favourable about the
advantages associated with ICT and generally disagreed with any negative statements.
Teachers clearly believe that ICT can have a positive impact on teaching and learning.
However, they agree most strongly with those statements which are a reflection of the
„technical‟ or motivational aspects as outlined in the research, over any prevailing
„pedagogical‟ motives. This suggests that many teachers are still working on a basis that
ICT impacts pupil learning through look and feel, as opposed to any deeper impact on
learning. However, the interviews reveal a belief from many teachers that ICT does offer
„deeper‟ benefits than simply making lessons more attractive to students. For instance,
interviewees suggest that ICT offers increased opportunities for participation, group
activities and constructive, real-life examples. This depicts a situation whereby some
teachers clearly show „buy-in‟ to the student-centred paradigm of constructivism, and the
opportunities offered by ICT to embed this.
Therefore in attempting to answer this question, the research shows a situation in Kuwait
where teachers believe they are high skilled in ICT, yet do not employ it extensively in
their use for teaching and learning (be it in the home or at school) and whilst many see that
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ICT offers clear advantages to the teaching process, a selection are positive about the
pedagogical impact that ICT can offer.
7.3. Research Question 2 - Does this confidence and application vary between
subjects?
Reflecting upon the discussion and analysis associated with the teachers, some significant
(and often surprising) variations by subject were shown. Firstly, teachers with an English
specialism are more confident than others in their ICT use, and notably moreso than
mathematicians. This has a huge implication for the skill level, and resulting possibilities in
professional development, of the profession in the country. In terms of ICT use, we can see
that science specialists are more likely to employ ICT use in school over the other subjects
and again mathematicians are the weakest in employing the use of ICT – potentially a
reflection of their weak ICT skills. Whilst we might recongise that science as a subject
lends itself to the application of ICT, it could be argued the same for practical mathematics,
and as such this emphasises the relative strengths and weaknesses of these subject areas.
In terms of variations about the impact of ICT, a few significant differences were shown.
Mathematicians were again less positive about some of the statements, namely around
ways of using ICT in ther teaching and how interesting ICT makes lessons. These
variations clearly depict mathematics as a subject as weak not only confidence or skills,
but also in the beliefs and values of the teachers, something key to successfully embedding
ICT into the curriculum and altering the pedagogical beliefs of the teachers implementing
it.
7.4. Research Question 3 - How do students use ICT in the classroom and at home?
Students‟ responses around ICT use in schools reflect the results shown in the teachers‟
questionnaire. Here, a mean average of only 1.56 (between less than once a month and at
least once a month) describes their frequency of use of the various ICT tasks or
applications. Once more, this is a significantly disappointing result, however, and must be
taken in context with their home use of ICT. Here, for the same ICT tasks or applications
we see a much higher mean of 2.15 (between at least once a month and about once a week)
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describing their frequency of home use. It is important to note that this home use refers to
learning activities, and as such students are clearly using ICT more in the home than in
school for ICT activities.
It could be supposed that this is possible for a number of reasons. For example, effective
direction of ICT at home by teachers, parents pushing children to use ICT more for
homework or a conscientious approach from Kuwaiti students. Kuwaiti schools are
generally very well resourced in terms of ICT (although we may recognise this as a
limitation of the research and will revisit this issue later in the chapter), similar to homes
where PCs, internet access and appropriate software are all freely available. Therefore, we
may deduce that the cause of this „gap‟ in ICT is not based upon a lack of resources.
Moreover, the teachers‟ responses to their use of ICT in the classroom depicts a situation
where students (a) do not have the opportunity to use ICT directly in teaching and learning,
and (b) are not exposed to a culture of ICT use in their schools. Whatever the reasons for
that gap, the key point is that students are able and willing to use ICT in their own learning,
but the education system is letting them down in providing opportunities to do so directly
at school.
Turning our attention to students‟ perceptions of ICT in the teaching and learning process,
this positivity is reflected in the responses. Students were asked to agree and disagree with
a range of positive and negative responses, Students were most positive about the
motivational aspects of using ICT, again pointing towards a position where the students are
experience „technical‟ motivations towards ICT than necessarily deeper pedagogical
benefits. From the negative statements, the response to „I I know how to use ICT but am
not interested in using it to learn‟ is particularly worthy of note. The mean average here is
the highest of all the negative statements, and underlies some negativity towards the use of
ICT in schools.
Whether or not this culture is a reflection of the students themselves or of the cultures
embedded in Kuwaiti schools is not clear, but given the general positivity about and
confidence in ICT shown by students, it is the opinion of the researcher that the attitude of
Kuwaiti schools is having a negative affect on some students opinions about ICT in the
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learning process. This is re-enforced when we look at the results for the students‟
confidence in ICT, where confidence across nearly all ICT skills or applications is high. A
mean average of 3.91 (confident) displays a situation where Kuwaiti students clearly have
confidence in their own abilities to use ICT effectively.
In answering this question, the research describes a situation where students are confident
in their ICT use, and evidence this in their home use of ICT as a learning tool. However,
there still exists a large gap in home and school use of ICT, something which the Kuwaiti
Government‟s strategy in ICT and education has attempted unsuccessfully to address.
There is capacity, based on their perceptions of the positive impact on their learning, to
utilise the beliefs and values of secondary school students in Kuwait to successfully embed
ICT further into the curriculum. However, it is a considerable failure of policy-makers and
practitioners that this has not been achieved. Furthermore, there is evidence to suggest that
some students are actively becoming less enthusiastic about the potential impact of ICT use
in the school.
7.5. Research Question 4 - Are there any differences between students’ teaching
and learning in public schools and private schools in terms of their use of
ICT in the classroom?
The analysis of students‟ responses by sector provides us with some interesting, and
significant results. The first of these is the fact that public school students are more likely
to use ICT in the school than their private sector counterparts. As previously discussed, this
could be for a number of reasons, but there is no evidence to suggest variations in
resources between sectors in Kuwaiti schools. The research believes that this could be as a
result of the increased pressures on fee-paying schools and a lack of „risk-taking‟ by the
school strategists and practitioners. This finding is at odds with ICT use in the home, where
private school students are more likely to more likely to use ICT for learning than those in
the public sector. The reasons for this are debateable – it could describe a more directed use
of ICT from private school teachers. However, given the lack of implementation in the
school environment, this is unlikely. It is more likely that this is down to the relative
affluence of private school children, and possibly more ICT being available in their homes.
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One of the more notable results arising in this analysis is from students‟ perceptions of the
use of ICT in teaching and learning. Here, public school students agree more with the
negative statements and less with the positive statements than their private school
counterparts. The key finding here is the inverse relationship between a students‟ exposure
to ICT in school (i.e. public are higher than private schools) and their positive belief about
the impact of ICT in schools (private are higher than public schools). This is a surprising
result, and perhaps calls into question the ability of school teachers to successfully embed
ICT into teaching and learning, as the implication of this finding is that either students are
over-exposed to ICT in school (not likely given the scale of the results in terms of ICT use)
but more worryingly, that teachers are failing to successfully use ICT in teaching and
learning.
In terms of confidence, private school students are more confident than public school. This
point may offer an alternative explanation to the previous finding about the impact of ICT
use. If students are less able in ICT use, then they will be less likely to fully appreciate or
achieve the benefits offered by it through teaching and learning. According to the results, a
skills gap exists between the private and public school students.
In terms of answering this question, the research shows a situation where public school
students are more likely to be exposed to ICT use in schools, but are less likely to use it in
the home. They are less confident in their ICT use and, fundamentally, they are less
positive about the potential impacts of ICT on their learning.
7.6. Research Question 5 - Are there any differences between male and female
students’ teaching and learning in terms of their use of ICT in the classroom?
Most of the results associated with the analysis by students‟ gender do not show any
significant variation in the means of the two groups. The only real point of interest is where
students are invited to assess their confidence in ICT use. Here, surprisingly perhaps, we
see a significant variation in favour of females. This is contradictory to most research from
the past twenty years, and whilst the research accepts the limitations of self-assessment as
208
opposed to other instruments that could be used, it perhaps signals a trend moving towards
increasing female confidence in ICT use.
It is possible to infer an interesting conclusion from this result. In the analysis related to
sector, the researcher suggests that increased confidence in ICT could be linked to
increased positivity about the impact about the benefits of ICT (see section 7.4). However,
this is not the case for the gender analysis, and could point to other possible reasons for the
private school students‟ positivity about ICT use. As previously expressed by the
researcher, perhaps that variability in beliefs or values is better explained by the variability
in ICT use: Leading the researcher to the conclusion that there is evidence of poor teaching
in ICT negatively impacting students‟ perceptions.
7.7. Recommendations
For the discussion in chapter 6, the research summarised the main findings of the research
are shown below. Based on both negatives and positives of these findings, the researcher
has made recommendations in the form of a ‟10 point plan‟ for the Kuwaiti government
and practitioners in the country to resolve these issues.
Teachers
Teachers are broadly confident about their use of ICT and its applications.
In spite of their confidence, their use of ICT to influence teaching methods, both at
home and at school is relatively low, which is especially surprising in established
areas such as the use of Interactive Whiteboards.
The use of ICT is met with positivity from teachers, contradictory to its actual
implementation and application.
When ICT is used, some teachers believe that it encourages more constructivist
approaches in the classrooms and increases the diversity of pedagogical
approaches.
English teachers are more confident in their use of ICT, whilst science teachers are
more likely to employ ICT in the classroom. Teachers of mathematics are less
209
likely to be either confident in ICT use or apply methods using ICT, or believe in its
value.
Students
Students are very critical of their use of ICT, reflective of the teachers‟ application
of ICT, notably in features the research would hope to be utilised more, such as
spreadsheets or use of the internet to look up information.
Considerably more use of ICT, even in a learning context, is actively undertaken in
the home, which still points to the prevailing gap between home use and application
in the classroom.
Students are positive, to an extent, about the application of ICT in the classroom
and its impact on their learning. However, there are still considerable reservations
about the use of ICT and a belief amongst students that it can negatively impact
their learning.
Students are extremely confident about their ICT use, similar again to teachers,
which highlights the potentially wasted opportunity that the lack of ICT provision
highlights.
Students by Private and Public Schools
Students from public schools are very more likely to be exposed to ICT use in the
classroom than their private school counterparts.
Students from private schools however, are more positive about the impact of ICT
use: potentially pointing to the dangers of over-use, or even that teachers are failing
to successfully use ICT in teaching and learning.
Public school students are less confident about their own use of ICT than private
school students. Private school students increased confidence could be an
explanation of their beliefs and values about the impact of ICT use in teaching and
learning.
Students by Gender
There is no discernable difference between male and female students in terms of
ICT use in schools or in the home.
There is no discernable difference in terms of any impact on their learning.
210
Female students are more confident than their male counterparts.
In attempting to cover all of these issues, some of the following recommendations are
specific to an issue, whilst others are broad and may be concerned with more than one.
Outlined here is a ten-point plan for the Kuwaiti Government and schools in Kuwait to
follow, on the basis of the research undertaken.
Recommendation One: Setting a Strategic Direction for ICT use in Kuwait
One of the implications of the research is that the existing Kuwaiti ICT and education
strategy has failed in some of its core purposes. Given this, a new strategic direction needs
to be set by Government for schools and teachers. There needs to be a common
understanding of the ways in which ICT should be implemented and to what extent it
should be used in schools.
Recommendation Two: Ensuring Teachers are Sufficiently Skilled
Whilst the research here suggests that teachers are generally confident about their ICT use,
there must still be recognition that this is a self-audit and therefore liable to issues of over-
confidence or lack of awareness. Therefore teachers should be subjected to an audit test of
ICT knowledge, with a „gap‟ analysis used to develop a national programme of training to
sufficiently deal with the weakest areas.
Recommendation Three: Moving from Skills to the Classroom
One of the biggest problems that the analysis shows is that whilst teachers feel confident in
their ICT use, they fail to utilise it in the classroom. The analysis also suggests that where
it is used, it is not necessarily being used well. The Kuwaiti Government could approach
this in a number of different ways, from direct guidance to schools, to training courses or
ICT „champions‟ in districts of Kuwait. Whether one of these methods, or a mixture are
employed, there needs to be more specialist advice and support for teachers in using ICT in
teaching and learning.
Recommendation Four: A Specific Focus on Mathematics
Mathematicians are significantly less confident than their counterparts in other subjects,
and also less likely to use ICT in teaching and learning. The Government needs to address
this problem, similar to the methods above, but with a specific focus on teachers of
mathematics, and with advice and support tailored to the subject area.
211
Recommendation Five: Delivering ICT on Entry
One of the most effective ways of embedding a culture within a profession, is to deliver a
programme of training and education on entry to the profession for teachers. Similar to that
described in the UK, teachers should (a) have to aware of the possibilities of ICT use, (b)
have a clear acceptance of the benefits for it, and (c) be tested on their skills before being
allowed to become a teacher.
Recommendation Six: Putting the Student at the Heart of Learning
If learning and teaching in Kuwait is to move towards a more successful, student-centred
paradigm, then the Government need to emphasise this through appropriate regulation and
inspection regimes for both public and private sector schools. Without a credible threat, it
seems unlikely that Kuwaiti education is advanced enough to move towards this approach
on its own.
Recommendation Seven: Closer Regulation of Private Schools
The results showed significantly less use of ICT in the classrooms of private schools as
opposed to public schools. Standards and exposure to ICT should be standardised and the
same opportunities provided for all students in Kuwaiti classroom. Any regulation or
inspection regime should be associated with the private sector, in addition to the public
sector.
Recommendation Eight: Auditing Schools’ Resources
Whilst this research does not enquire about the resources of the school (and recognises this
as a shortcoming), the Kuwaiti Government should perform an audit of school ICT
resources to ensure that ICT facilities are available to a good standard across all schools in
Kuwait. Thereafter, financial support should be targeted to those schools needing it most.
Recommendation Nine: Monitoring the Performance of Boys
Whilst this research takes no performance measures, it does show that boys are less
confident about their use of ICT than girls. Whilst this is yet to be represented by grades or
results, if this trend is representative of Kuwaiti schools, then within a few years we might
expect it to be evident in school results. To avoid this, the Government (through schools)
should closely monitor the performance of boys with ICT use, and ensure that appropriate
interventions are taken to develop their skills.
212
Recommendation Ten: Planning Ahead
One of the failings of the previous strategy has been to carry forward a strategy to
implementation. To achieve this, they need to put in place the associated operational
elements of strategic delivery. They include an appropriate planning mechanism, delivery
of clear targets and performance measures, with local and regional ownership. There
should be appropriate measures and clear opportunities for in-depth review, built into any
plan – thus affording them the opportunity to revise the strategy should they need to.
7.8. Limitations and Areas for Further Study
Through the discussion and conclusions a number of limitations and/or areas for further
study have been noted. Here, these are discussed in turn.
The two questionnaires are very much driven by self-assessment. Self-assessment is a valid
method for analysing skills, quantity of use, confidence and opinions, however it does have
limitations. These include the interpretation of the question itself, in addition to the
interpretation of your own scale associated with any of the aforementioned areas. Notably
in this piece of research, the questions on ICT use in schools and ICT abilities could
benefit from additional measuring instruments which further analyse the levels associated
with either. For instance, this could include practical tests to investigate the ICT ability
levels of teachers or students. This type of investigation is both costly and time-intensive,
but could be beneficial for future studies to build on the findings here.
The data and findings drawn from the interviewees are limited as only 14 interviews took
place. It is possible that future research may wish to interview more respondents, to
develop a broader base of data for analysis. The study did not investigate the level of ICT
resources available to the teachers and students. Further studies may wish to adopt a series
of measures to define this, for example a PC to student ration, an IWB to student ratio
and/or speed-test on internet access. These could then be used to measure against both
teachers and students‟ ICT use.
Finally, the research recognises that the research does not focus on outcomes, but rather
impact on teachers‟ pedagogies and students‟ values or beliefs. In order to build on this
research, the next stage would be to involve testing the impact of ICT through
213
implementing specific ICT methods and using testing as a measuring instrument to indicate
the outcomes associated with ICT use.
7.9. Closing Statements
This research describes a situation in Kuwaiti secondary schools where ICT use is, at best,
sporadic. Far from the development of the deep pedagogical impact that ICT can offer, or
indeed the delivery of a student-centered paradigm, schools in Kuwait remain at a level
where they are simply not employing enough ICT to make a difference. Where it is
employed, evidence is mixed as to whether there is indeed a positive or negative impact.
The research does suggest there is capacity in the skills of teachers and students to employ
ICT effectively, at least on a fundamental or technical level. There remains a significant
gap between possessing these schools and applying them in the school setting. Alongside
this, there is some support and recognition of the benefits associated with ICT use, and
there are some teachers who recognise the importance of ICT in developing more
constructivist methods in the classroom.
The research implies both a failure of Government and the profession itself to effectively
implement ICT in the Kuwaiti classroom. The Government strategy implemented in 2005
sought to decrease the gap between everyday use of ICT and its application in teaching and
learning. To this point, this research shows little indication that this has been successful,
and points to radically needed reform to ensure this aim is achieved.
214
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229
Appendix 1 – The Student Questionnaire
Background Information:
SECTOR 1-PUBLIC 2-PRIVATE
GENDER 1-MALE 2-FEMALE
1. What year are you in?
□ Year 10 □ Year 11 □ Year 12
2. What class are you in?
□1 □2 □3 □4 □5
3. At school, on a weekly basis, I use computer and it's applications (ICT) for learning
purposes
□ 1 Never □ 2 One hour □ 3 Two hours
□ 4 Three hours □ 5 Four hours □ 6 More than Five hours
4. At home, on a weekly basis, I use computer and it's applications for learning purposes
□ 1 Never □ 2 One hour □ 3 Two hours
□ 4 Three hours □ 5 Four hours □ 6 More than Five hours
5. How long have you been using computer and it's applications for learning purposes
either at school or at home?
□ 1- Never use □ 2 -less than one year □- 3One year
□ 4 -Two years □ 5 -Three years □ -6More than four years
230
6. At school, on a weekly basis, I use computers for learning purposes
Time Arabic language
Science
Maths
English
Never use
1 hour/ week
2 hours/ week
3 hours/ week
4 hours/ week
More than five hours/ week
231
Section 1: Using ICT at School.1. How often do you use ICT at school for completing these tasks?
No.
At School ……...
Tick one box only on each row
Nev
er
Less th
an o
nce a m
onth
At least o
nce a m
onth
About o
nce a w
eek
Tw
o to
three tim
es a week
Every
d ay
1 I look up for information on hard disk and compact discs ( CD
ROMs ) S1A1 1 5 5 1 1 1
2 I use educational software to learn some lessons
3 I use some spreadsheets
4 I use / create pictures and animations
5 I watch DVDs/videos on the computer
6 I make/design things on the computer (like posters, invites)
7 I use computer for writing
8 I design websites
9 I program the computer
10 I download music files or software from the Web
11 I send and receive emails
12 I organise the computer settings such as files/memory/system
13 I use the Internet to look up information
14 I watch TV/listen to radio/music on the Internet
15 I use the Internet to revise for exams
16 I create/record sound files on the computer
17 I make films/animations on the computer
18 I browse the Internet for fun
19 I play games on the computer
20 I shop on the Internet
232
Section 2: Using ICT at Home
1. How often do you use ICT at home for completing these tasks?
No.
At Home ……...
Tick one box only on each row
Nev
er
Less th
an o
nce a m
on
th
At least o
nce a m
on
th
Ab
ou
t on
ce a week
Tw
o to
three tim
es a week
Ev
ery d
ay
1 I shop on the Internet 1 5 5 1 1 1
2 I play games on the computer
3 I browse the Internet for fun
4 I make films/animations on the computer
5 I create/record sound files on the computer
6 I use the Internet to revise for exams
7 I watch TV/listen to radio/music on the
Internet
8 I use the Internet to look up information
9 I organise the computer settings such as
files/memory/system
10 I send and receive emails
11 I download music files or software from the
Web
12 I program the computer
13 I design websites
14 I use computer for writing
233
15 I make/design things on the computer (like
posters, invites)
16 I watch DVDs/videos on the computer
17 I use / create pictures and animations
18 I use some spreadsheets
19 I use educational software to learn some
lessons
20 I look up for information on hard disk and
compact discs ( CD ROMs )
2. How often do you use computer at home for completing these tasks?
No.
At Home ……...
Tick one box only on each row
Nev
er
Less th
an o
nce a m
onth
At least o
nce a m
onth
About o
nce a w
eek T
wo to
three tim
es a
week
Every
d ay
1 For Entertainment 1 5 5 1 1 1
2 For school homework
3 Other works (helping my family,
purchasing, etc...)
234
Section 3: Your Opinion about using Computer in the teaching/learning process
1. To what extent do you agree or disagree with the following statements:
No.
Please tick one box on each row
Stro
ng
ly ag
ree
Ag
ree Un
decid
ed
Disag
ree
Stro
ng
ly d
isagree
1 I enjoy lessons with a computer 1 1 1 5 5
2 I feel comfortable working with computers
3 I believe that the more often teachers use computers, the
more I will enjoy school
4 I am tired of using a computer
5 I have better information sources than ICT
6 ICT is very helpful in my learning process
7 Computers scare me
8 I need help from teachers to learn with ICT
9 Computers are difficult to use
10 I find it time-consuming using ICT in learning
11 I know how to use ICT but am not interested in using it to
learn
12 Working with computers makes me nervous
13 I wish ICT was not used in teaching
235
2. To what extent has the use of ICT at school (you and your teachers ' usage) impacted
your learning experiences?
□ No impact1 □ Simple impact 2 □ Significant impact 3
Section 4: Your Computer Usage Level
1.How would you rate your confidence level in terms of the following computer skills or
applications?
No.
Please tick one box only that
indicates the appropriate choice in
each row
Very
unconfi
dent
Not
confident Unsure Confident
Very
confident
1 Basics of operating PC (using
keyboard, mouse … etc.)
2 Managing files (delete, move to …
etc.)
3 Using word processor ( such as
word program )
4 Use spreadsheet processor (such as
excel program )
5 Creating or Using data base
processor (such as access program)
6 Create and design presentations
7
Combining files from different
resources ( sound or video files ) to
create presentations
236
8 Producing learning software
9 Searching for saved data on hard
disk or compact disk
10 Using data show basis on PC as
projection tool
11 Using different designing programs
(Photoshop, Flash)
12 Deleting or editing pictures,
animations or movies
13 Using digital camera
14 Internet browsing
15 Searching for information on the
Internet
16 Downloading files from the Internet
17 Using Email ( reading and sending
mails)
18 Using chat rooms and forums
(Facebook, Twitter)
19 Publishing a personal blog
20 Designing web page or personal site
237
Appendix 2 – The Teacher Questionnaire
Teachers' Questionnaire
Background Information:
SECTOR 1-PUBLIC - 2-PRIVATE
GENDER 1-MALE 2-FEMALE
Your main specialisation ( please specify ): …………………………
MATH 1 ARABIC 2 SCIENCE 3 ENGLISH 4
2. What grade do you teach? [Tick only one of the following. If you teach different levels,
tick the level you teach most often]
□ 1-Year 10 □ 2-Year 11 □ 3- Year 12
3. Your Age:
□ 1 -20 – 30 □ 2-31 – 40 □3 -41 – 50 □ 4-51 - 60
4. Number of years in teaching: ………………. Year/ years.
5. Have you attended any ICT training courses?
□1 Yes □ 2 No
Section one: Your ICT Usage Level
1.How would you rate your confidence level in terms of the following computer skills or
applications?
238
No.
Please tick one box only
that indicates the
appropriate choice in
each row
Very
unconfident
1
Not
confident
2
Unsure
3
Confident
4
Very
confident
5
1
Basics of operating PC
(using keyboard, mouse
… etc.)
2 Managing files ( delete,
move to, … etc.)
3 Using word processor (
such as word program )
4
Use spreadsheet
processor (such as excel
program )
5
Creating or Using data
base processor (such as
access program)
6
Combining files from
different resources (
sound or video files ) to
create presentations
7 Producing learning
software
8 Using PowerPoint
software
9
Searching for saved data
on hard disk or compact
disk
239
10 Using data show basis
on PC as projection tool
11
Using different
designing programs
(Photoshop, Flash)
12
Deleting or editing
pictures, animations or
movies
13 Using digital camera
14 Internet browsing
15
Searching for
information on the
Internet
16 Downloading files from
the Internet
17 Using Email ( reading
and sending mails)
18
Using chat rooms and
forums (Facebook,
Twitter)
19 Publishing a personal
blog
20 Designing web page or
personal site
2. How do you describe your level in using ICT in comparison with your associates at
school? (Please tick the appropriate number)
240
3. How do you describe your level in using ICT in comparison with your students at
school? (Please tick the appropriate number)
Section Two: ICT Usage in Teaching Practice
1. How often do you use any of the following ICT tools and activities for teaching
practices and school-related work at school or home?
At school At home
Nev
er
Occasio
nally
Month
ly
Week
ly
Daily
No. [Tick the option that indicates both school and home
use] Nev
er
Occasio
nally
Month
ly
Week
ly
Daily
5 5 1 1 1 1 Create a document using a word processor 5 5 1 1 1
2 Manipulate graphics or images using graphics software
3 Look up information on a hard disc drive or compact
disc
4 Use the Internet to obtain teaching resources.
5 Create lessons that incorporate simulation software
6 Create lessons that use presentation software
7 Set computer-based homework
8 Create lessons that incorporate students' use of a digital
video, graphics or sound editors.
9 Use email to communicate with other teachers.
10 Use email to communicate with your students.
241
11 Use email to communicate with your students‟ parents
12 Participate in an on-line interactive discussion or
bulletin board with students
13 Use software to monitor the students' scores
14 Use interactive whiteboards
15 Use subject-specific software
2. On a weekly basis, how many hours do you expect students use ICT for learning?
…………… hour/ hours
3. To what extent the usage of computer in teaching change your teaching methods?
(Please tick the appropriate response)
□ No change 1……… □ A little2 ……….. □ Somewhat high 3……… □ High4
242
Section 3: Your Opinion about using ICT in the teaching process:
1. Advantages and disadvantages of using computer in your teaching method
No. [Please tick one box only in each row] S
trongly
disag
ree D
isagree
Neith
er
agree
no
r
disag
ree
Agree
Stro
ngly
agree
1 I find it easy to think of ways to use computer in my
teaching
5 5 1 1 1
2 ICT makes teaching more interesting for me
3 ICT makes teaching more difficult
4 ICT makes my lessons more diverse
5 ICT decreases students‟ motivation
6 ICT improves the presentation of material in my lessons
7 ICT makes preparing lessons quicker
8 ICT limits the content of my lessons
9 ICT makes preparing lessons more difficult
10 ICT makes the lessons more fun for the students
11 ICT makes it more difficult to control the class
12 ICT often prevent teaching because of interruption in work
or in software
13 ICT has given me more confidence to extend my use of
computer to other topics
243
2. When you use ICT in teaching, in what ways does this affect you as a teacher?
No. [Please tick one box only in each row]
Stro
ngly
disag
ree D
isagree
Neith
er
agree
nor
disag
ree
Agree
Stro
ngly
agree
1 ICT enhances my role as a teacher 5 5 1 1 1
2 ICT makes me feel more professional
3 ICT positively changes the learning climate in my
classroom
4 ICT positively changes the relationship between me and
my students
5 ICT positively changes the usual relationship between
students in my classroom
Thank you for your participating in this survey
244
Appendix 3 – Coded Interview Transcripts
Questio
n
Number
Interview
Respondent
Response Code
1 1 INT 1 I often use computer and data show in the teaching
process because it is always available and easy to use.
Likewise I use PowerPoint to display lesson and Excel
Program to display some mathematical issues.
PROJ
2 INT 2 Data Show, Laptop and Projector, There is also
some other technologies but we mainly use these at the
moment.
PROJ
3 INT 3 I use educational software provided by the
Ministry in mathematics likewise I also use computer,
PowerPoint and Excel sheet.
EDU,
PROJ,
XLS
4 INT 4 I often use Microsoft and Google programs and
some other educational softwares specialised in
mathematics
EDU,
NET
5 INT 5 I often use PowerPoint, Microsoft program and
Google search online in the classroom. Being science
school, we always need new and latest information of
science subject.
EDU,
NET
6 INT 6 I use the software which Ministry of Education
provides to teachers likewise I use personnel laptop and
scientific research sites for biology and chemistry
subjects.
EDU,
NET
7 INT 7 I use many technologies in classroom such as Data
Show, Flash, educational programs and films
EDU,
MOV
245
8 INT 8 The best technology that I use is smart electronic
blackboard, computer and educational software.
PROJ,
EDU
9 INT 9 I use Data Show, PowerPoint, and personnel laptop
and education software provided by the Ministry of
Education
PROJ,
EDU
10 INT 10 Of the ICT that I often use is Projector,
PowerPoint and personal laptop
PROJ
11 INT 11 Mostly I use Projector, PowerPoint and personal
laptop.
PROJ
12 INT 12 I prefer to vary in the use of technology,
sometimes I use PowerPoint and sometimes special
educational software provided by the Ministry of
Education and I use online.
PROJ,
EDU
13 INT 13 As a teacher of English language, I use types of
ICT, importantly electronic dictionary, electronic
language laboratory and laptops
SUBJ
14 INT 14 The educational technologies that we use are
educational programs designed by the Ministry of
Education, personnel laptops, electronic dictionary and
PowerPoint.
EDU,
PROJ
2 1 INT 1 There are many ways to integrate technology into
education in the educational process but we focus on
learning workshops for students whereas each student
participate in class and learning becomes more effective.
WKS,
PART
2 INT 2 The method which I use: Participation of all
students in the preparation of the lesson with the help of
the teacher and we also use some educational programs
with students in collective way.
PART,
EDU
246
3 INT 3 Mainly we focus on learning workshops for
students whereas each student participates and we use
special educational software of Mathematics and work
there collectively.
WKS,
PART,
EDU
4 INT 4 Mostly I use team projects, lectures and sometimes
self learning. I use team works as it is very suitable and
interesting for math classes and I use only one computer
for each team.
TEAM
5 INT 5 There are many teaching methods in science where
teachers use ICT and in my view, the best method is to
encourage students to use Google search online prior to
coming in the class as they may discover good
information about the lesson that helps them to
understand the lesson and grasp it, so, when I explain
lesson, I feel that students have good knowledge of the
subject and interact with me positively.
RES
6 INT 6 In my experience, the best method is to show
scientific fiction movies to students and discuss
collectively about its scientific contents during or after
show.
MOV
7 INT 7 In my view, the best method is cooperative and
self education, these two, through the use of ICT, are very
effective methods of education which help students to
participate in the educational process effectively. The
cooperative education with use of ICT helps the teacher
to explain his subject and makes all students participating
in the educational process
PART
8 INT 8 ICT helps me in using modern teaching methods
such as linking theories with science whereas the student
not just listen to theories but also can see and interact
EDU
247
with scientific material, for example in anatomy, the
student can experience virtual autopsy on some animals
through educational program.
9 INT 9 The best method I prefer is discussion between
students with each other‟s and teachers, I use here
educational software provided by the Ministry which is
effective but needs constant improvement by specialised
programmers.
EDU
10 INT 10 There are many methods in Arabic language but
mostly I prefer teamwork wherein each group designs a
power pint slide and present it. Subsequently all students
discuss about its contents and have a fruitful discussion
and dialogue on the subject.
TEAM
11 INT 11 I use educational software specialised in Arabic
language teaching in the classroom in addition to
personal laptop.
EDU
12 INT 12 As I am an Arabic teacher, I prefer dialogue and
discussion wherein a part of the subject is displayed
through PowerPoint then have a dialogue and discussion
between the students on the subject.
PROJ
13 INT 13 I often use team method wherein students are
divided into teams and each team is provided computers
and taught through this.
TEAM
14 INT 14 The method that I use in the classroom is
teamwork where students can use ICT in a team and
classroom is divided into many teams.
TEAM
3 1 INT 1 Most important objectives of ICT that helps me in
the educational process is that it simplifies the
information to the student and helps me to explain
QK
248
educational information to the student, likewise I utilise it
to shorten time in the class so that I can revise the lesson
with students without any pressure on ending class time
2 INT 2 The most important objective is that I present
many examples in class and this is because Mathematic
requires many examples for mathematical issues and ICT
helps me a lot and it also helps me to explain the lesson in
an easier and better way.
APP
3 INT 3 As for my objective is concerned, the ICT can
keep pace with the rapid evolution of technology and
through ICT we can change the way of explaining the
lessons, move away from the routine way and can attract
the attention of students as well.
ATT
4 INT 4 The main target which I want to achieve through
ICT is to save time and effort in the educational process
equally both for student and teacher and ICT helps me to
provide images and paintings of mathematical equations
likewise it helps me to attract student‟s attention.
QK,
APP,
ATT
5 INT 5 The best objective that I strive to achieve is to raise
students‟ scientific and technological level and develop
the scientific research skill of the student
STAND
, RES
6 INT 6 A Science teacher can achieve the best educational
objectives through the use of ICT. The objective that I
would like to achieve is to simplify and display proper
scientific visualisation of scientific theories in science.
STAND
, APP
7 INT 7 In fact I have a specific goal that I am trying to
achieve through ICT. The goal is to clarify scientific
concepts in a broader way and facilitate its understanding
for students and ICT helps me to provide attractive
ATT,
QK,
APP
249
environment of educational process for student and helps
to saves adequate time for teacher to prepare for lesson
economically and materially.
8 INT 8 ICT helps the teacher to vary teaching methods
and provides time and effort for student as well as
teacher, likewise its objective is linking technologies with
modern developments.
QK,
VAR
9 INT 9 To encourage students to learn and use ICT in their
lives and broaden their participation in the classroom, be
effective part of the educational process and not just
listeners.
PART
10 INT 10 The objective that I strive to achieve through ICT
is to generate enthusiasm among students so that they
participate in the educational process. The problems that
the teacher faces is presence of large number of students
in the classroom of limited hour but modern ICTs help us
to overcome these problems.
ATT,
QK
11 INT 11 I think the most important goal a teacher wants to
achieve is to help students to gain confidence in using
modern technology efficiently. The modern technology is
not just for playing but the basic objective is to develop
knowledge.
CONF,
STAND
12 INT 12 Integration of ICT helps the teacher in the
classroom administration and he can encourage all
students to participate in dialogue and discussion likewise
it provide prominent role for students in the educational
process.
PART,
ADMIN
13 INT 13 The objective I try to achieve is imitation in
language and teaching to students the imitation method
STAND
250
through some existing computer programs.
14 INT 14 I have observed throughout my educational
experience that if ICT is used properly, it promotes
teamwork among students and helps in the development
of the educational process.
TEAM
4 1 INT 1 The students are excellent in using any type of new
developed technologies better than teachers and this
quality helps me to use any new technology.
EXC
2 INT 2 Yes, especially in mathematics because
educational programs that we use are easy and the
students, in this age of technological culture, have
become good enough from outside school and this helps
me to explain students without wasting time while using
ICT as they know what will I use before I tell them.
EXC
3 INT 3 This depends on the teacher and the way ICT is
being used and if technology will be used in an effective
way, the students will respond with it and they will be
more interactive in using technology.
TEACH
4 INT 4 During my teaching experience I have not seen a
single student who does not have computer at home,
therefore, we feel that the students have excellent ICT
culture and well capable to use latest technologies.
EXC
5 INT 5 Most of our students are well aware of ICT and
occasionally exchange ICT with scientific research skills
in classes which are useful for both students and teachers.
EXC
6 INT 6 There are some educational programs that we use
with the students in the learning process and we cannot
use these programs unless they know how to use it
correctly and through my daily experience with the
EXC
251
students, I realised that they are well enough in using
modern technology
7 INT 7 This depends on the type of technology are being
used in the classroom. Sometimes all students are not
getting opportunity to use technology due to lack of
required number of systems in the classroom.
TECH
8 INT 8 The positive aspects of some educational programs
are that they provide more opportunities for students to
participate in scientific experiments and all students are
getting chance to use ICT in the class.
PART
9 INT 9 Yes students are well versed in using ICT in the
classroom, but we wish that they can vary in the use of
different kinds of ICTs in the classroom. Since the
existing technologies are very limited, it will be very
useful for students if modern technologies are introduced
which will increase chances for them to participate in the
educational process.
EXC
10 INT 10 They are not getting chances each times to
participate in the educational process in the classroom
and this depend on the type of technology used in the
classroom and if the computers will be provided to all
students, it is certain that they will participate in the
lesson
TECH,
PART
11 INT 11 This depends on the ability of the teacher and
how does he use ICT. Some teachers are positive who
involve all students in using technology while some
teachers, unfortunately, do not give chances to students
and use themselves only.
TEACH
12 INT 12 This depends on the type of technology used in TECH,
252
the class and the teacher's ability in class Administration
using technology. In my class, I encourage all students to
participate even in the limited period of the class.
TEACH
, PART
13 INT 13 I face no difficulty in this as students have
previous experience in using modern and advanced ICTs,
rather it helps me during teaching as I do not have to
spend extra time to teach them how to use ICT.
EXC
14 INT 14 This depends on the number of students in
classroom. If students are less, all will get chance to use
ICT, otherwise, sometimes, we face difficulties due to
shortage of systems.
NUM
5 1 INT 1 Of course there is a significant change because the
student is more focused during the use of educational
technology and interacts in a positive way with the
teacher in the classroom. And of course this helps the
teacher to interact with students.
POS
2 INT 2 Grasping capacity of students is affected in a
positive way and as the math is based on the numbers, the
ICT helps students to understand the numbers and deal
with them easily.
POS
3 INT 3 Grasping capacity of the student develops
spontaneously on use of technology and on the success of
the teacher in the use of technology in the educational
process.
POS,
TEACH
4 INT 4 The most advantage of ICT is to attract attention of
the students during the class and this itself increases the
grasping capacity of the student.
POS
5 INT 5 Science has a special nature; it relies on images,
scientific models and anatomy programs. There are a lot
POS,
EDU,
253
of educational resources in educational technology that
contain scientific information and I as a teacher use this
information effectively in a positive way and this
increases the grasping capacity of the student.
ATT
6 INT 6 In science, educational process depends on the
interaction between student and teacher and as much as
the teacher uses ICT, student‟s grasping capacity
becomes better. Since some scientific lessons are based
on anatomy and the student adopts this process while
using education software, its increases his grasping
capacity on the subject.
POS,
ATT
7 INT 7 For students, ICT is consider a mental preparatory
aspect and this helps to attract their attention in class and
subsequently helps them in understanding scientific
subjects.
POS,
ATT
8 INT 8 This depends on the type of ICT we use, some
educational programs are interesting and students interact
with it positively while some are boring, therefore, they
cannot avail themselves of this sufficiently.
POS
9 INT 9 Of course, the use of ICT enhances grasping
capacity of the students in the educational process as they
feel that they are part of the educational process and not
like traditional system where they are only listeners and
teacher speaks throughout the class.
POS,
PART
10 INT 10 Arabic language depends on specific skills and
acquiring these skills require long times. The ICT helps
students in acquiring these skills that enhance the
grasping capacity of the students
POS
11 INT 11 No doubt, the presence of ICT in classroom is POS,
254
very useful for students and enhances their grasping
capacity but this depends on the teacher and his capability
to manage the educational process in the class.
TEACH
12 INT 12 Yes, the students have ability to interact in a
positive way in classroom while using ICT and this helps
them to participate positively in discussion and dialogue
with students and teachers in the classroom and this
certainly enhance in their grasping capabilities.
POS
13 INT 13 As English language requires skills such as
speaking, writing and some others and students can
enhance these skills through use of ICT and also can use
some technologies while at home. Of course, this
increases grasping capacity of the student.
POS
14 INT 14 This depends on the extent of the student's ability
to participate in the lesson and how they benefit from the
ICT, because whatever the teacher motivates student to
participate and student does not have ability to use it, he
will not be able to grasp the skills even in the presence of
effective educational technology.
POS
6 1 INT 1 Teachers should be proficient in all types of
educational programs which facilitate the presentation,
especially, which embodies mathematical forms in the
circle of mathematics. The objective of ICT is to take
advantage of time, however, it is very sad, that we do not
have enough halls equipped with necessary arrangements
for the students that results in moving them from one
classroom to the other. And because of this, for a
classroom that doesn't have necessary arrangements, it
consumes considerable time of the particular period itself,
in the process of making these arrangements for the class.
TEACH
, QK,
FAC
255
2 INT 2 The teachers should develop themselves in using
ICT, especially in mathematics because ICT makes the
mathematics very interesting subject for students and all
students will start participating in the class.
TEACH
, PART
3 INT 3 Technology despite its evolution can never take
place of experience and smart way of teaching, of course
ICT complement the teacher‟s effort but cannot take its
place.
SUBS
4 INT 4 The most important suggestion is to train teachers
to use ICT properly and request to the Ministry of
Education to provide modern equipped software
especially in the field of mathematics, and we wish to
have electronic blackboards in each class.
TEACH
, EDU
5 INT 5 It is very important to use ICT in the educational
process but can‟t be a substitute of traditional methods
and we use ICT as an assisting means of the educational
process. We want from the ministry to help teachers
through continuous improvement in the infrastructure of
educational technology in schools
SUBS,
FAC
6 INT 6 The Ministry of Education should hold educational
trainings for teachers where they can design educational
software and should provide latest scientific books /
articles on scientific discoveries.
TEACH
, EDU
7 INT 7 I advise teachers to encourage students to
participate in preparation of scientific lessons, thus
students will collect scientific material and help teacher
in design lesson. This is the best method to teach
students. I request my colleagues of other subjects to
share experience of modern technology with other
PART
256
sections.
8 INT 8 I think it is necessary that the teacher be well
familiar with scientific subject and constantly develop
them and they should not depend on ICT only, the
teachers should notice individual differences during use
of ICT between students.
SUBS
9 INT 9 I think the more important matters for teacher is
that he should be well trained to use modern technologies
and know how and when to use so that he can benefit
from it and influence students positively likewise the
teacher should keep on following new specialised
technologies and learn how to use them in daily classes.
TEACH
10 INT 10 I hope from the Ministry of Education to develop
ICT so that we can use it in assessing students after
completion of each classes and it will help teachers in
term of shortening the time.
FAC,
EDU
11 INT 11 In my opinion, the teachers make maximum
efforts in choosing appropriate and best available ICT for
students that fits them practically, psychologically and
culturally.
FAC
12 INT 12 We request the Ministry of Education to send for
schools ready and advanced software always as per the
curriculum and teachers opinions should be taken into
consideration while designing software packages,
because their views play pivotal roles in educational
software.
EDU
13 INT 13 The presence of ICT in the educational process
necessitates teachers to develop themselves in
innovations of ICT and they must be well aware of
TEACH
257
modern technologies at least in their specialisation.
14 INT 14 All teachers should take care of individual
differences between students and this consideration
should be given importance while using ICT and it is not
necessary that a specific technology suits all students.
DIFF
258
Appendix 4 – Interview Coding and Frequency
Code Description Occurrences
PROJ Powerpoint and/or projector
technology
8
EDU Educational software 19
XLS Spreadsheet software 1
NET Internet as a teaching tool 3
MOV Use of movies as a teaching
tool
2
SUBJ Subject specific software 1
WKS Workshop type activities 2
PART Participation in learning 10
TEAM Team or group work
activities
5
RES Research 1
QK Quickness or Efficiencies 6
APP Application or real life
examples
4
ATT Raising attention as a visual
or motivational aid
7
STAND Raising standards or
educational outcomes
4
VAR Variety of approaches in 1
259
teaching and learning
CONF Confidence of learners 1
ADMIN Administrative Activities 1
EXC Excellent levels of ICT skills
shown by students
7
TEACH ICT use or capability is
dependent upon the capability
of the teacher
11
TECH ICT use is dependent upon
the nature of the technologies
available
3
NUM Effective ICT use is
dependent upon class sises
1
POS ICT use has a positive impact
on grasping capacity
14
DIFF Appreciation of differences in
individual students
1
FAC Facilities or technology
associated with ICT
4
SUBS ICT not acting as a substitute
for good quality teaching
3
260
Appendix 5 – Interview Coding Frequency by Question
Question Codes Occurrences
1 PROJ 8
EDU 9
XLS 1
NET 3
MOV 1
SUBJ 1
2 WKS 2
PART 4
EDU 5
TEAM 4
RES 1
MOV 1
3 QK 5
APP 4
ATT 4
STAND 4
VAR 1
CONF 1
261
ADMIN 1
TEAM 1
PART 1
4 EXC 7
TEACH 3
PART 3
TECH 3
NUM 1
5 POS 14
TEACH 2
EDU 1
ATT 3
6 TEACH 6
QK 1
FAC 4
PART 2
SUBS 3
EDU 4
DIFF 1
262
Appendix 6 –Interview Categories from Codes
Codes Overall Occurrences Category Category
Frequency
MOV 2 VARIETY OF
TEACHING
APPROACHES
19
WKS 2
PART 5
TEAM 10
VAR 1
QK 6 EFFIENCIES IN
USING ICT
7
ADMIN 1
PROJ 8 ICT TOOLS USED 33
EDU 19
XLS 1
NET 3
SUBJ 2
ATT 7 MOTIVATIONAL
CHARACTERISTICS
OF ICT USE
13
CONF 1
APP 4
RES 1
TEACH 11 TEACHING
STANDARDS AND
17
NUM 1
263
DIFF 1 ICT
SUBS 3
EXC 7 IMPACT UPON
STANDARDS
21
POS 14
TECH 3 ICT FACILITIES 7
FAC 4
264
265
266
267
268