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A Survey of Technology Enabled Active Learning in Teaching and Learning Practices to Enhance the Quality of Engineering Students

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In this study, a survey was carried out on the use of Technology Enabled Active Learning (TEAL) in teaching and learning practices to enhance the quality of engineering students. TEAL is one of the new learning formats that involve the use of simulations, hands-on experiments and lectures in the curriculum or learning process; a variety of technologies are applied to achieve learning goals. The application of TEAL encompasses five elements, namely: online learning, hands-on experiment, blended learning, collaborative learning and lab activities. This study implemented TEAL in practicing teaching and learning technology, pedagogy and content (TPACK) to enhance the quality and employability of engineering students through the improved curriculum of education. With the help of technologies in the learning process, students are poised to meet the need of the industry as professionals and excellent workers upon their graduation. For this purpose, final year students in the course of Bachelor of Engineering at Technical University Network (MTUN), a leading technical university network specialising in technological skills, were involved in this study. In this survey of TEAL, quantitative research methods were used to collect the relevant data.
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Copyright © 2015 American Scientific Publishers Advanced Science Letters
All rights reserved Vol.23, 1104-1108, 2017
Printed in the United States of America
A Survey of Technology Enabled Active Learning in
Teaching and Learning Practices to Enhance the Quality of
Engineering Students
Nur Farha Hassan1, Saifullizam Puteh 2
1 Faculty of Technical and Vocational Education, Universiti Tun Hussein Onn Malaysia,
86400 Batu Pahat, Johor, Malaysia.
In this study, a survey was carried out on the use of Technology Enabled Active Learning (TEAL) in teaching and learning
practices to enhance the quality of engineering students. TEAL is one of the new learning formats that involve the use of
simulations, hands-on experiments and lectures in the curriculum or learning process; a variety of technologies are applied to
achieve learning goals. The application of TEAL encompasses five elements, namely: online learning, hands-on experiment,
blended learning, collaborative learning and lab activities. This study implemented TEAL in practicing teaching and learning
technology, pedagogy and content (TPACK) to enhance the quality and employability of engineering students through the
improved curriculum of education. With the help of technologies in the learning process, students are poised to meet the need
of the industry as professionals and excellent workers upon their graduation. For this purpose, final year students in the
course of Bachelor of Engineering at Technical University Network (MTUN), a leading technical university network
specialising in technological skills, were involved in this study. In this survey of TEAL, quantitative research methods were
used to collect the relevant data.
Keywords: Technology enabled Active Learning (TEAL), Technology, pedagogy and content knowledge (TPACK)
1. INTRODUCTION
Rapid development of technology in Malaysia has led to
high economic growth rate every year. Indirectly, the
education sector in this country has also gone through
transformation in terms of teaching and learning methods;
technological innovations are utilised to improve the
curriculum of engineering courses which in turn produces
quality graduates who meet the requirements of
institutional, industrial and economic developments1. The
main goal of this transformation is to make Malaysia a
centre for academic excellence by the year 2020, in the
Asian region and internationally.
To achieve this goal, the education system today needs
to apply technological innovation in the teaching, which
will empower students to think creatively, critically,
innovatively and intelligently; they will be equipped with
the necessary technological skills to solve problems and
communicate effectively2. A lot of research studies have
been conducted on the learning technology innovation
methods that can help to improve the education system3.
One of the many technology learning methods in
education is the technology enabled active learning
(TEAL).
The TEAL method was first introduced in education a
few years ago. This technological innovation learning was
used for the first time at the University of MIT in 2001 by
John Belcher for enhancing the quality of students, where
students learnt in an active environment with
opportunities to use technology for better understanding
*Email Address: hb140185@siswa.uthm.edu.my
of and testing what they had learnt; they could also use
calculation and figure drawings if they needed to explore
new concepts in learning or experiments to generate
experience 4.
TEAL is one of the new learning formats. With this
concept of learning, students can use technology elements
of simulations, hands-on experience and lectures in their
learning, apart from using technological devices such as
multimedia, information and communication technology
(ICT), audio, visual and animation or 3D images5. The
approach was used to implement the TEAL format to
enhance the quality of students for creativity and
innovativeness in applying technological innovations to
produce active learning in teaching and learning
activities2, 18.
This learning is about the innovative learning method
that uses a variety of electronic media, software and ICT
for simulations and visualisation designs, which aim to
establish students in learning science and technology6.
The practice of teaching and learning needs technology,
pedagogy and content knowledge (TPACK)7 in the TEAL
process. This is to raise the quality level of learning
curriculum, where technology is used in content learning
and pedagogy is employed to help teachers in making
students understand any concept in all subjects taught in
class.
Thus, TPACK is important for achieving success in the
transformation of technology education and realise the
TEAL concept. The main idea of implementing the
practice of TPACK is to produce a new generation of
graduates with high levels of knowledge, skills,
2
employability, productivity, creativity and innovative
ideas, as there is a serious need for TVE graduates to be
able to generate intellectual capital in the technology
global environment 8. Quality of education needs to be
implemented in technical and vocational (TVE) to help
students to become more skilful in various fields9.
Thus, TEAL should be practised in all institutions,
especially in technical and vocational establishments as
this will produce an effective curriculum of learning in
the education system which shapes students to possess
high levels of technology, pedagogy and content
knowledge, as well as become competent professional
workers in various industrial fields10. The TEAL method
not only trains a student to be a good worker, it also helps
him or her to set the life goals in an effective way11. This
concept benefits students in creating experience with the
use of technology to improve their performance and hone
skills in the future8. Although there are many challenges
in starting the TEAL concept in the education system, it is
an important component to ensure the quality of students
in the future.
The paper is organised in the following manner:
Section 2 gives the definitions of TEAL and TPACK
practice in general; Section 3 describes the elements of
TEAL; Section 4 discusses the active learning practices of
TPACK; Section 5 elaborates the quality of students
through the TEAL method; Section 6 elaborates on the
conceptual framework, and finally, the last section
summarises the work of this paper.
2. DEFINITION OF TEAL AND TPACK PRACTICE
The application of TEAL can be defined as a method of
technology innovation learning, through which a course
instructor combines laboratory and simulation technology
and explanations as a practice of learning styles in an
institution of higher education9. TEAL is an innovative
format of learning process which applies media rich
technology to help students to understand visualization
and simulation concepts in their studies. The TEAL
method transforms the process of education goals setting
and planning of a new environment and structures it into a
better curriculum learning process which provides TVE
students with a comfortable atmosphere for their studies6.
This comfortable learning environment allows students
to build extensive knowledge and become creative and
innovative in their thinking by using technology to gain
accurate information in their studies6. The thing that
needs to be emphasised is the use technology in
education, even though it incurs high costs in the
preparation of technology equipment that helps students
to generate ideas on designing, creating and acquiring
more knowledge in interesting exploration; this will
improve the students' progress with the help the higher-
quality curriculum in teaching and learning process12.
The practice of TPACK is used for the content
of TEAL interactive learning; it requires the addition of
technology in learning content and pedagogy in the
domain of learning that can help to enhance the quality of
learning and employable skills in TVE graduates7. The
practice of TPACK is essential to achieve success in the
transformation of education as this will help graduates to
improve acquisition of knowledge, employable skills,
productivity, creativity and innovative ideas, intellectual
capital, innovation and technology8. This practice is
important to maintain a high-quality education system in
the engineering field, which will help students to be
skilful individuals in various fields. In order to become
better students, the students themselves must apply
technology, pedagogy and content in their own
education13.
3. ELEMENTS APPLICATION OF TEAL
The application of TEAL in learning process involves five
main elements to implement the concept of this
innovative learning. According to 6,12,14,15, there are five
main components of TEAL chosen to build the
characteristics of TVE students: effective lessons in
online learning, hands-on experiment, blended learning,
collaborative learning, and lab activities. These
components need to be applied in the learning process
and the concept of technology innovation includes hands-
on skills and simulations of the real industry to improve
the quality of graduates. In this way, institutions of higher
learning will produce individuals of high market value
who will contribute positively to the national economy in
the future10.
The first element is online learning. This approach is
applied using the internet to help students acquire
information more easily. Students can choose content of
learning and related topics any time and from anywhere;
they can review them outside the campus at their own
convenient time16. Online learning is essential to produce
independent students who search learning information by
using internet technologies, web, e-learning, etc. Hence,
online learning is an effective method that helps students
acquire and build new knowledge based on content
of education17.
The second element is hands-on experiment. This skill
uses technology for displaying an invisible concept with
3D simulations and visualisation applications. This
procedure provides an avenue for students to explore,
understand and learn a new concept more clearly and
effectively as it helps students build practical experiences
in an active learning environment using technology15. The
design of hands-on experiment is important to
incorporate lessons by demonstrating a concept closely to
students with the use of technological tools19.
The third element is blended learning. This approach
combines the face-to-face method with online learning. It
creates experiences in learning activities of content
through the integrated technology of information and
communication (ICT) to produce an optimal learning
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outcome with an effective educational purpose20. This
learning method presents an opportunity for students to
integrate the technological and innovative advances in
online learning with the digital materials to support face-
to-face instruction by using an ICT device 21.
The fourth element is collaborative learning, which
involves students working in groups to find solutions,
create products and understand concepts by using the
power of technology processes and a developed
curriculum22. Students are enabled to collaborate in their
own settings and environments so as to build on their
learning through group discussions, sharing of views and
explanation of a concept to each other, which can foster
cooperation and strong team spirit 23.
The fifth element is lab activity. This is a practice in
the learning process that can help students connect the
concepts they learn in class with real-world situations
through the ICT equipment such as Power Point, white
board, projector and other tools. By explaining the
concepts in sessions of lab activities, students also can
build technical skills in handling technology tools in the
future6, 24. The aim of lab activities is to give students
more effective learning. The content of lab activities
must incorporate technology tools that consistently give
students opportunities to conduct lab activities in their
lessons; in this way, students will better understand what
they learn in learning sessions22.
Thus, to produce quality education, students need to
follow all of the TEAL elements. This study used five
elements to prepare students to become more skilful in
technology and develop creative thinking after they are
involved in active learning approach. Each element has its
own requirements to improve students’ performance in
education, especially in relation to the quality and
employability skills of students to face the global
environment in technology learning and have the
experience of handling powerful technology in the
future1,8. If this procedure is not implemented, the
learning process will not run smoothly because students
are not given the opportunity to explore the use of
technology in gaining knowledge, skills and experience
on their own25.
4. TPACK IN ACTIVE LEARNING PRACTICES
Implementers of TPACK in active learning practices
include the conceptual technology to enhance curriculum
of teaching and learning through exploration and
interaction. This is to increase the content knowledge as
the subjects to teach knowledge of technology such as
computers, the Internet, video, digital and other
knowledge; it also includes pedagogy such as the
practices, processes, strategies, ways and methods of
teaching and learning to increase students’ learning13. As
a model of teaching and learning, active learning is the
concept of TPACK which should be practiced in
education. It can build and improve the knowledge of
technologies, which in turn improves the learning
curriculum by using technology, sophisticated machinery
and technical equipment to gain understanding,
knowledge and handling skills26.
Teaching and learning process oriented applications of
technology can help students to improve their hands-on
skills and build experience of working in groups which
will improve the quality and performance of learning
and lessons27. In this study, researchers focused on three
parts of TPACK, namely, technology, pedagogical and
content knowledge to enhance the quality of learning,
employment and economic development of students.
Firstly, based on technology knowledge, students learn to
use ICT equipment and software, as well as appropriate
digital equipment which result in effective learning28.
Technology is used to help students’ learning; this
technology can also open the mind of and attract students
to learn actively and find information, which helps them
understand a concept learnt quickly and in detail24.
Pedagogical knowledge refers to the process and
methods of teaching and practice; it also covers in-
depth knowledge of teaching and learning that includes
the overall learning to provide the actual purposes of an
education system such as values, vision, mission,
objectives and goals of learning7. Pedagogical knowledge
can provide exposure to students about the need to teach a
subject, and this will give them the necessary knowledge
and skills for better understanding of the benefits and
concepts in the educational system; this will further help
students to establish an effective learning process29.
Meanwhile, content knowledge is about what students
need to learn from the learning content; they consider and
choose the right learning materials based on their
lessons30. Generated Content knowledge is important as it
enables students to acquire knowledge of theories,
concepts and procedures in the field of services; this
makes learning much easier for students involved in
planning, evaluating and generating ideas, and they can
explain a lesson with strong evidence to support the
learning contents that can be used to improve the quality
of learning7.
Thus, all the elements of TPACK practices must be
applied in active learning so as to produce quality
graduates. In addition, students are competent enough to
choose the right technology they can use to find
information and improve their academic performance25.
5. PRODUCE TEAL FOR QUALITY OF STUDENTS
Nowadays, technology is the focus in implementing
innovation in education fields, especially ICT, digital
tools, electronic devices, software and etc. These
technologies are needed to provide opportunities and
experiences to students in creating new knowledge and
improving work skills. They are particularly relevant to
engineering students, particularly in teaching and learning
sessions which can increase their confidence and
4
enthusiasm to take part in sharing ideas and improving
their learning performance 31.
Using technology is important in learning interaction
with knowledge content, pedagogy and technology that
can improve the quality of learning. In particular,
technology is required in learning content and pedagogy
to form a domain of learning that can enhance the quality
of graduates, employable skills and economic value7. This
means technology needs to be applied in education to
improve the performance of students in education and
skills as these are directly related to the quality of
students, to enable them to face an increasingly
competitive global environment and to be better
candidates for future careers1. This learning concept is
important to change a passive learning environment
which does not encourage creative and innovative
thinking, where students are less interested in sharing
ideas during the teaching and learning process2.
The concept of TEAL needs to be applied in
educational development to generate creative and
innovative thinking among students, as well as improve
their quality. The application will create an active learning
opportunity through the use technology tools which will
prepare the students to enter the real working world in the
future2.
This study is anchored to the idea of improving
the quality of TVE graduates, which includes matters that
will transform the education system and how TVE
students can acquire relevant skills to meet the industrial
needs. We have high hopes that students trained with the
TEAL application will graduate as competent and skilful
workers who meet the staffing requirements of the
nation15.
Nonetheless, one important challenge for developing
this learning concept is the need to have technology tools
for creating the new academic environment. Past research
has shown that the application of TEAL is often
associated with academic achievement and academic
adjustment. The application of TEAL in teaching and
learning sessions is important to use because it can create
an active learning environment that stimulates generation
of new ideas, creative and innovative thinking2. Students
also experience improvements in hands-on skills with the
use of technology in the learning process. Students are
taught that using TEAL in learning will help them deepen
their understanding of study materials and gain practical
experiences; in other words, they will be successful
learners24, 31.
According to 24, several studies conducted with the use
of quantitative methods to investigate technology enabled
active learning in higher education fields revealed that
students achieved a better understanding of their learning,
were more active in class, and gained more experience in
using technology which had positive effects on their
studies. They believe that active learning concepts based
on technology is especially important in the social field,
interactive technology, and the culture of knowledge
sharing and learning in developing process experience 31.
This type of learning can help improve teaching and
learning methods. It will result in more effective
innovations using technology to create an active learning
environment. The benefits obtained from using
technology are many; these include shifting passive
lectures to active lessons, increasing students’
understanding of concepts and analysis of concepts and
phenomenon in education, and improving students’
visualisation skills32.
6. CONCEPTUAL FRAMEWORK
The conceptual framework for this research is divided
into four sections of input, process, output and new
modernisation. The conceptual framework includes the
application of technology enabled active learning. Firstly,
input section is about technology enabled active learning
style that consists of five elements of online learning,
hands-on experiments, blended learning, collaborative
learning and lab activities. The format of this study is the
concept of learning approach involving lectures,
simulations and hands-on handling of technology
innovation to develop graduates who are knowledgeable
and able to apply technology skills in the future to fulfil
requirements of the industry. The process of this study
includes the practices of teaching and learning
technology, pedagogy and content.
This practice is used to implement the concept of
technology enabled active learning that enhances the
quality of students’ learning. Meanwhile, the output of the
conceptual framework is to enhance quality of TVET
graduates to become skilful and professional workers in
technology in the future. The final part of the new
modernisation is to achieve transformations of Malaysia’s
Education Blueprint (Higher Education) 2015-2025,
which provides 10 shifts of study to change the current
education system to be more effective and excellent1. This
study refers to shift 4 (the quality of TVET graduates),
which will be supported by shift 9 (the global level of
online learning) to enhance the quality of teaching and
learning in the education system1. This factor is important
to produce students with good quality so as to develop
quality in education, increase employability skills and
develop nation’s economy.
Figure 1: Conceptual Framework
5
7. CONCLUSION
In summary, the survey of TEAL reveals that it impacts
on students’ achievement positively. It helps students to
better understand learning concept in class to create
employable skills and gives experiences in the use of
technology7. This application can be defined as a new
learning process; students are in control of their own
learning process and they achieve learning objectives by
using technology tools3. The TEAL approach in this study
is a formula with five elements of online learning, hands-
on experiment, blended learning, collaborative learning,
and lab activities. This study focuses on technology
enabled active learning (TEAL) with practical
applications in teaching and learning technology,
pedagogy and content (TPACK) to help transform the
education system in general and raise the quality level
of engineering students in particular.
ACKNOWLEDGMENTS
This research was supported by the scholarship of the
Ministry of Higher Education (Mybrain15) and Universiti
Tun Hussein Onn Malaysia.
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Abstract The graduates’ readiness for employability has become a major issue for HEIs in the world due to growing concern from governments and industries on the quality of the graduates. As thus, this paper intends to determine the most required skills for Engineering graduate’s readiness for employability. Therefore, the main objective of the current study is to determine the skills required for Graduates’ Readiness for Employability for Engineering graduates. Specifically, this study intends to review the most current literature to specify the most required skills for the readiness of Engineering Graduates for Employability in the Higher Education Institutes (HEIs) in the world. The study reviews the current literature on graduates’ readiness for employability especially for engineering graduates as the main source of information. The study is designed to analyze and determine the engineering graduates’ readiness for employability required skills. The literature utilized for this study covers the latest literature (from 2014 to 2019) extracted from Google Scholar, ProQuest, and Scopus. The three main keywords used were ‘higher education’, ‘employability skills ‘or ‘readiness for employability skills, and ‘skills gap in the world. The study determines the engineering graduates’ readiness for employability required skills for the HEIs in the world. It analyses the most influential required skills for the graduate readiness for employability that will be considered as an empirical study on the graduates of the engineering colleges in the world. The study conceptualizes graduate readiness for employability requirements from the latest literature and papers. The results of the study will fill the gap in understanding the main required engineering graduates’ readiness for employability skills in the world. This study is intended to determine the most required graduates’ readiness for employability skills for engineering in the HEIs in the world. Besides, it will be used to advise a policy guideline for HEIs and researchers for the understanding of graduates’ readiness for employability skills requirements in the HEIs in the world.
... Also, Clarke (2018) added the labor market variable which is consisting of both the demand of workers and the supply of available workers in the labor market (Clarke, 2018). Other factors also influence graduate readiness for employability such as institutional-related factors (Chan, Fong, Luk, & Ho, 2017;Finch et al., 2013), utilization of active lab environment for delivering technical industrial related skills (Hassan & Puteh, 2017), and implementation of smart active labs (Shetty & Xu, 2018). ...
... This new model of graduate readiness for employability combines what he believed as the influencing graduates attribute factors for graduates' employability consisted of human capital, social capital, and individual behaviors and their attributes towards employability, taking into account the labor market contribution which in total influence the graduate readiness for employment (Clarke, 2018). Other factors also influence graduate readiness for employability such as institutional-related factors (Chan et al., 2017;Finch et al., 2013), utilization of active lab environment for delivering technical industrial related skills (Hassan & Puteh, 2017), and implementation of smart active labs (Shetty & Xu, 2018). ...
... Another important factor is the utilization of active lab environment for delivering technical industrial related skills. Hassan and Puteh (2017) analyzed the importance of active learning in teaching practical competencies to enhance the quality of engineering graduates for their readiness for employability. They stated the importance of online learning, blended learning, collaborative learning, laboratory learning, and interactive learning. ...
Article
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The Omani higher education system has enlarged noticeably since 1970 both in the number of students and in the infrastructure. As a result, there has been a big investment to provide quality higher educational institutes capable of providing suitable graduates to fulfill the requirements of the labor. The mean purpose of the higher education system is to provide the nation with the quality education that meets the requirements of the 21st century with graduates having readiness for employability skills and competencies. However, The skills gap between HEIs graduates and industrial requirements in Oman and other regional Gulf countries is seen as one of the most important factors that affect the employment of graduates in the private sector because the graduate readiness for employability did not consider the graduate attributes factors which influence graduate readiness for employability. Therefore, the main objective of the current study is to determine the effects of the graduates’ attributes on the readiness for employability and justified with existing theories in the higher educational institutes in Oman. Specifically, this study intends to determine the influencing factors that contribute to the readiness of Engineering Graduates for Employability in the Higher Education Institutes (HEIs) in Oman. The study reviews the current literature on the effects of graduates’ attributes on the readiness for employability especially for Omani engineering graduates as the main source of information. The study is designed to determine and analyze graduates’ attributes factors and elements. The literature utilized for this study covers the latest literature (from 2013 to 2019) extracted from Google Scholar, ProQuest, and Scopus. The four main keywords used were ‘higher education’, ‘graduate attributes ‘or ‘readiness for employability, and ‘skills gap and justify with most relevant theories in the particular area’. The study summarized the empirical review on the graduate attributes which analyses the effects of graduate attributes on the graduates’ readiness for employability that will be considered as an empirical study on the graduates of the engineering colleges in Oman. The study explored review findings on the graduate readiness for employability framework from different graduates’ attributes and provisions perspectives. The results of the study will fill the gap in understanding the main graduate attributes factors affecting the attainment of graduates’ readiness for employability skills which has justified with most relevant theories in the particular. The study also recommends a policy guideline for ensuring of readiness of engineering graduates for employability in the HEIs in Oman
... Therefore, this study aims to determine a readiness for employability frame work which identifies the essential graduates" readiness for employability required skills which identified as; soft skills consisting of Critical or analytical thinking, problem solving skills, Communication skills, lifelong learning and information literacy, Team-working skills, Professional ethics and morality, Entrepreneurship skills, and Leadership skills (Adnan, Daud, Alias, & Razali, 2017;Al-Azri, 2016;Anastasiu et al., 2017;Belwal, Priyadarshi, & Al Fazari, 2017;Craps et al., 2017;Evans, Davis, & Wheeler, 2017;Finch, Hamilton, Baldwin, & Zehner, 2013;Gupta, Singh, & Kaushik, 2018;Lane, 2017;Moore & Morton, 2017;Neisler, Clayton, Al-Barwani, Al Kharusi, & Al-Sulaimani, 2016), proficiency of English (Al-Lamki, 1998, 2006Al-Mahrooqi, 2012;Al-Mahrooqi & Denman, 2016;Allen & De Weert, 2007;Arkoudis, Baik, Bexley, & Doughney, 2014;Manoharan & Arockiam, 2017), and technical industrial skills (Anastasiu et al., 2017;Belwal et al., 2017;Cooper, Gallagher, Collins, & Shahir, 2015). Also, it intends to address the Graduates" attributing factors that may cause the misalignment of skills Gap provided by the HEIs and the workplaces required skills that influence engineering graduates" readiness for employability in Oman consisting of human capital, social capital, and the individual attributes (Clarke, 2018), institution-related attributes (Jackson, 2014), and active learning attributes (Hassan & Puteh, 2017). Finally, it analysis the moderating effect of gender (Strachan, Peixoto, Emembolu, & Restivo, 2018), career, and moral mindset (Jones, 2017). ...
... Another important factor is the utilization of an active learning environment for delivering technical industrial related skills. Several empirical studies analyzed the importance of active learning in teaching practical competencies to enhance the quality of engineering graduates for their readiness of employability such as online learning, blended learning, collaborative learning, laboratory learning, and interactive learning (Shetty & Xu, 2018), computer programs, Computer Based Training (CBTs), Virtual Learning Environment (VLE) and simulators (Hassan & Puteh, 2017). Moreover, many researchers believed that other factors such as Gender (Mansour, 2018), Career mindset (Rozan & Zibarzani, 2018), and Moral mindset (Brewer, 2018) have a direct influence in the implementation and attainment of graduate readiness for employability skills at the HEIs. ...
Article
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The Omani higher education system has enlarged noticeably since 1970 both in the number of students and in the infrastructure. As a result, there has been a wide investment to provide quality higher educational institutes capable of providing suitable graduates to fulfill the requirements of both public and private sectors with a focus on females to assure equal gender educational and career opportunities chances. Therefore, graduates" readiness for employability has become a major issue for Higher Education Institutes (HEIs) in Oman due to the growing concern from governments and industries on the quality of the graduates. Therefore, the main objective of the current study is to develop a conceptual framework for the graduate readiness for employability and incorporates the graduate attributes including human capital attributes, social capital attributes, individual attributes, institution-related attributes, and active learning attributes moderated by gender, career, and moral mindset among Engineering Graduate in Oman. The study uses available sources of existing literature based on the four main keywords "higher education", "graduate attributes "or "readiness for employability, and "skills gaps in 17 Oman". The study also justified by the following theories which are human capital; education and economy development; behavior theory; and motivation theory. The literature utilized for this study covers the latest literature (from 2013 to 2020) extracted from Google Scholar, ProQuest, and Scopus, and other online resources. Based on the summary findings, the study develops a framework that analyses the effects of influential factors on the graduate readiness for employability that will be considered as an empirical study on the graduates of the engineering colleges in Oman. Moreover, the study also concluded that there are moderating effects of gender, moral mindset, and career mindset on the influence factors and the graduate readiness for employability among Omani engineering colleges" students. The results of the study will fill the gap in understanding the main factors affecting the attainment of graduates" readiness for employability skills in Oman. The study recommends justifying this conceptual framework by empirical data from the Engineering Graduate in the Higher Education Institutes (HEIs) and draws a policy guideline for ensuring of readiness of engineering graduates for employability in the HEIs in Oman.
... Also, in a study for analysing the importance of active learning in teaching practical competencies to enhance the quality of engineering graduates for their readiness of employability, it stated the importance of online learning, blended learning, collaborative learning, laboratory learning and interactive learning. Also computer programs, Computer Based Training (CBTs) , Virtual Learning Environment (VLE) and simulators are important as well (Hassan & Puteh, 2017). ...
... Secondly, the acceptable t-value and p-value must be greater than 1.96 and less than 0.05 respectively (Ramayah, Cheah, Chuah, Ting, & Memon, 2018). The hypothesis testing result of the impact of Institution-Related Attributes on the Readiness for Employability is illustrated in table 4. It is interesting to note that the graduates' attributes factor of Active Learning attribute (H1) showed no significance influence on the Readiness for employability of the Engineering graduates of the HEIs in Oman despite the importance of implementing virtual learning environment, CBTs, and simulation to enhance both technical and non-technical training for Engineering in a healthy and safe environment (Hassan & Puteh, 2017). Also, Edwin & Sabura (2019) stressed in the importance of conducting practical activities and students Projects utilizing virtual training as an essential part of the learning process. ...
Article
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The aim of this study is to investigate the effects of Active Learning attributes on the employability readiness of the engineering graduates of the High Education Institutes in Oman. The study adopted self-directed structured questionnaire was distributed to a sample of engineering students and graduates from a number of colleges and universities. The study used the structural equation modelling (SEM) for analysed the collected data. The findings of the study reveal that universities active learning facilities have high positive attribution for promoting team work skills, learning in safe working environment, endorsing adaptability skills, and developing analytical thinking abilities among graduates. However, the findings of the study indicate that HEIs are requested to effectively utilise active learning facilities to promote the attainment of technical skills, development of lifelong learning skills especially the openness to new ideas and the drive to use new technologies, endorsement of problem-solving skills, and the engagement and the development of graduates' intrinsic motivation to improve their graduates' Readiness for Employability. Specifically, study findings showed Active Learning attributes factor could have high influence on the Readiness for Employability of the graduates in Oman when they are utilised effectively. Finally, the study's implementations and recommendations 27 could be transferred to the Gulf and Arab or other countries' contexts having similar settings of HE systems and similar issues of skills gap and employability concern of their graduates.
... As tecnologias educacionais têm revolucionado a forma como o conhecimento é compartilhado. Ferramentas como plataformas de aprendizado online, software de simulação e ambientes de desenvolvimento integrados oferecem recursos interativos e dinâmicos que tornam o processo de aprendizado mais envolvente [Hassan and Puteh 2017]. Estudos mostram que o uso de tecnologias educacionais pode melhorar a retenção de conhecimento e a motivação dos estudantes [Bishop and Verleger 2013], permitindo um aprendizado mais flexível e personalizado, adaptando-se às necessidades individuais dos estudantes e oferecendo acesso a uma ampla gama de recursos educacionais [Phillips 2005]. ...
Conference Paper
Este trabalho apresenta o Codefólio, um projeto de extensão desenvolvido para incentivar estudantes de graduação a demonstrarem suas habilidades e conhecimentos. O Codefólio é composto por três iniciativas: a platforma Codefólio, para estudantes compartilharem seus projetos; tutoria, para estudantes experientes oferecerem tutoria aos novos ingressantes; e workshops, para promover a troca de conhecimentos entre estudantes e membros da comunidade externa. Como resultado, notou-se o engajamento dos estudantes nas atividades, mostrando os impactos positivos do projeto para com os alunos. Houve também um reconhecimento da comunidade externa dos conhecimentos e habilidades compartilhados durante as atividades.
... This is important to give students the chance to develop their experience, to develop the skills and gain knowledge in technology user [1,2]. At the same time, students can train themselves how to learn and explore a concept learning which can improve their understanding in their fields, as they can be practiced that skill when working in industries [3,4]. This is necessary to encourage students to venture into the digital technology industries in competing globally to achieve success [5,2]. ...
Article
Nowadays, the industrial revolution 4.0 had given a great impact on education. An active environment which applied technology in education can developed multiple skills in students. Technology Enabled/Enhanced Active Learning (TEAL) is one of the active environments that used technology in education. TEAL is the combination of several active learning domains which enhances students' understanding of learning and built job-related skills. However, students have lack of knowledge in their field which led to increase in unemployment of students. Hence, TEAL can help students in perform their practical works to develop knowledge and skills in students. This pilot study was distributed survey question about create an active and effective environment using TEAL application among the engineering students. The survey is consisted of 141 items and was distributed to 40 respondents. This pilot study used Rasch Measurement Model for measuring the validity and reliability of survey questions. Winsteps software is used to check the functionality of the item in terms of (i) Reliability and separation of respondents - items; (ii) detect the polarity items of PTMEA CORR Value; (iii) the item fit based on MNSQ Value; and (iv) Determine the dependent items based on the standardized residual value measurement correlation. The final result 109 items is suitable to use for measurement of the real study in future work.
... For freelance work, graduates need to have communication, leadership, and organisational skills, teamwork, cooperation, proactivity, sociability, as well as continuous learning mindsets [12] [13]. Other crucial attributes include diligence, self-motivation, compassion, discipline, enthusiasm, integrity, and work commitment [14]. ...
Article
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Engineering graduates need to be accepted by their employers before they can work in the industry. Employers have to recruit talents for the in industry through interviews. The study was conducted to identify the constraints or problems experienced by the industry with regards to the acceptance of new engineering graduates. The structured partial interviews involved five employers in the electrical, civil, and mechanical engineering fields. Specifically, the interviews revolved around the graduates’ abilities needed by the industry, which also helped the graduates secure relevant jobs. The data was then transcripted to identify the constraints and issues in this study. As per the results, the employers highly valued manoeuverability
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Background: Teaching programming is a challenging task, as it requires instructors to guide students in developing complex skills such as real-world abstraction, problem-solving, and logical reasoning. However, the traditional teaching approach is often ineffective in achieving these objectives. Evidence suggests that Active Learning Methodologies (ALMs) can provide a more conducive environment for skill and competency development. Nonetheless, instructors’ adoption rate of ALMs remains relatively low due to various barriers and factors, particularly in programming education. Goal: To assist instructors in facing this challenge, we present in this article CollabProg, an open collaborative repository designed to support instructors in identifying and selecting the appropriate ALMs for their teaching context and specific classroom needs. Additionally, CollabProg provides a set of practical guidelines, offering a step-by-step guide to assist instructors in adopting ALMs. Method: We adopted the Design Science Research Methodology (DSRM) to systematically address the research problem and guide the development, evaluation, and evolution of CollabProg. Furthermore, we present two case studies to evaluate the acceptance and feasibility of using CollabProg from the perspective of instructors at different educational institutions in Brazil. Findings: The evidence demonstrates that CollabProg effectively supports instructors in adopting active learning methodologies while identifying limitations and opportunities for improvement. We also found that CollabProg helped instructors identify and choose suitable ALMs for their teaching context to meet their specific classroom needs. The guidelines provided by the repository were useful and highly practical for lesson planning in adopting ALMs. Implications: The use of CollabProg underscores the need for effective strategies to support instructors in teaching programming and motivating students to learn. This is particularly crucial in collaborative learning contexts, where social interaction is key. CollabProg’s versatility in supporting such contexts is a significant factor for successful instruction.
Conference Paper
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Ensinar programação é desafiador devido à necessidade de desenvolver habilidades como abstração, resolução de problemas e raciocínio lógico nos estudantes. Há evidências de que as Metodologias Ativas de Aprendizagem (MAAs) podem facilitar o desenvolvimento dessas competências de forma eficiente. Este artigo apresenta os resultados de um survey conduzido com 102 docentes de diferentes regiões do Brasil que sumarizariou evidências sobre o uso das MAAs no ensino de programação. Os resultados foram obtidos de 22 unidades federativas, com maior participação proveniente da região Norte (37,2%) e uma predominância de docentes atuando em instituições públicas (77,5%). Os resultados indicaram que 78,4% dos docentes já utilizaram ou estão utilizando MAAs e as mais adotadas são Problem-Based Learning, Gamificação e Project-Based Learning.
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This article is a literacy highlight for the study of the use of teaching technology that enables active learning in teaching and learning practices to enhance lecturers' self-efficacy and teaching and learning quality. Teaching that enables active learning is one of the new teaching formats that involves the use of simulations, experiments and lectures directly in the curriculum or teaching process; various technologies are used to achieve the goals of teaching. The usage of technology applications in active learning encompassing five elements, namely online learning, hands-on experiments, blended learning, collaborative teaching and laboratory activities. The study involved technology applications in teaching and learning technology, pedagogy and content (TPACK) to enhance the quality and affordability of the technical and vocational education (TVE) student market through more effective educational curriculum and teaching elements. With the help of technology in the teaching and learning process, student production will be better prepared to meet the needs of the industry as professionals and excellent workers. Indirectly, self-efficacy of lecturers also would be increased and expertise in Malaysian Technical University Network (MTUN) would also be enhanced.
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The review of the application of Technology Enabled Active Learning (TEAL) is based on the concept of a learning format that involves the delivery of lessons content in the laboratory, simulations and hands-on experience by students in conducting technological innovation. This study was conducted to determine the level of application of TEAL among students to help improve the understanding of the students so as to enhance their creativity and innovativeness as well as to provide facilities for the application of TEAL in the laboratories of the Faculty of Technical and Vocational Education (FTVE), Universiti Tun Hussein Onn, Malaysia. The study sample consisted of 227 students from among 518 undergraduate students from the FTVE Semester 1 2014/15 Session. Six laboratories at the Department of Professional Education (DPE) were used for this study. The determination of the sample size for this study was based on the strata sampling method of calculation. The study instrument was quantitative in nature, whereby a questionnaire was used to obtain data from the respondents. The questionnaire was designed using a five-point Likert Scale. The data obtained were analysed to obtain the mean score, standard deviation and correlation. The results showed that the level of the application of TEAL in practical learning is high, the application of TEAL to assist in improving the understanding so as to enhance creativity and innovativeness is high, and the provision of laboratory facilities at the FTVE in helping to create a TEAL learning environment is high. Meanwhile, the hypothesis of the study showed that there is a moderate relationship between the level of application of TEAL and the understanding of students in enhancing their creativity and innovativeness. On the whole, TEAL should be implemented to help improve the students’ understanding. In order to enhance the creativity and innovativeness of students, the study found that instructors and students must together apply TEAL optimally in teaching and learning activities.
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This paper describes a teacher knowledge framework for technology integration called technological pedagogical content knowledge (originally TPCK, now known as TPACK, or technology, pedagogy, and content knowledge). This framework builds on Lee Shulman's (1986, 1987) construct of pedagogical content knowledge (PCK) to include technology knowledge. The development of TPACK by teachers is critical to effective teaching with technology. The paper begins with a brief introduction to the complex, ill-structured nature of teaching. The nature of technologies (both analog and digital) is considered, as well as how the inclusion of technology in pedagogy further complicates teaching. The TPACK framework for teacher knowledge is described in detail as a complex interaction among three bodies of knowledge: content, pedagogy, and technology. The interaction of these bodies of knowledge, both theoretically and in practice, produces the types of flexible knowledge needed to successfully integrate technology use into teaching.
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This design case highlights a new initiative, the technology-rich active learning classrooms at Michigan State University. The classrooms are intended to promote student engagement, collaborative active learning, and faculty-student interaction in a technology-rich environment that allows for digital information sharing and co-creation of content. The article describes the process of planning and design, integration of room features, and creation of user experiences.
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Over the last four years, the MIT Physics Department has been introducing major changes in the way that introductory physics is taught, through the TEAL (Technology Enhanced Active Learning) Project. The new format is a merger of lecture, recitations, and hands-on laboratory experience into a technologically and collaboratively rich experience for incoming freshmen. We are not the first to teach in this format, but we have expanded on the work of others by adding a component centered on active and passive visualizations of electromagnetic phenomena. Students are gathering in groups of nine, with as many as 12 groups, in a newly remodeled classroom, for five hours per week. The students are exposed to a mixture of instruction, laboratory work with desktop experiments, and collaborative work in smaller groups of three, in a computer rich environment. The desktop experiments and computer-aided analysis of experimental data give the students direct experience with the basic phenomena. Formal and informal instruction, aided by media-rich interactive software for simulation and visualization, then aid students in their conceptualization of this experience. By the 2005-2006 Academic Year, all freshman physics at MIT will be taught in the TEAL format, with the exception of two small highly mathematical freshman courses aimed at physics majors. Our assessment studies for TEAL included research instruments that were selected in order to best measure students' performance in the cognitive and affective domains. In the cognitive domain, we used pre- and post-tests that enabled us to compare the extent of conceptual change among students at various academic levels. The overall Hake normalized learning gain was 0.55, more or less uniformly spread across all levels of student background, and about twice the learning gains in a control group taught in the lecture format.
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Many courses are currently delivered using Course Management Systems (CMS). Discussion forums within these systems provide the basis for collaborative learning. In this chapter, we present the use of Social Network Analysis (SNA) to analyze the structure of interactions between the students in these forums. Various metrics are introduced for ranking and determining roles, while clustering and temporal analysis techniques are applied to study the student communications, the forming of groups, the role changes, as well as scrutinizing the content of the exchanged messages. Our approach provides the instructor with better means to assess the participation of students by (1) identification of participants' roles; (2) dynamic visualization of interactions between the participants and the groups they formed; (3) presenting hierarchy of the discussed topics; and (4) tracking the evolution and growth of these patterns and roles over time. The applicability of the proposed analyses are illustrated through several case studies.
Book
This groundbreaking book offers a down-to-earth resource for the practical application of blended learning in higher education as well as a comprehensive examination of the topic. Well-grounded in research, Blended Learning in Higher Education clearly demonstrates how the blended learning approach embraces the traditional values of face-to-face teaching and integrates the best practices of online learning. This approach has proven to both enhance and expand the effectiveness and efficiency of teaching and learning in higher education across disciplines. In this much-needed book, authors D. Randy Garrison and Norman D. Vaughan present the foundational research, theoretical framework, scenarios, principles, and practical guidelines for the redesign and transformation of the higher education curriculum. Blended Learning in Higher Education. Outlines seven blended learning redesign principles. Explains the professional development issues essential to the implementation of blended learning designs. Presents six illustrative scenarios of blended learning design. Contains practical guidelines to blended learning redesign. Describes techniques and tools for engaging students.
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This study examines the effect of reducing the seat time of a large lecture chemistry class by two-thirds and conducting it in an active learning classroom rather than a traditional amphitheater. To account for the reduced lecture, didactic content was recorded and posted online for viewing outside of the classroom. A second experimental section, also in a blended and flipped format, was examined the following semester as a replication. To measure student subject-matter learning, we used a standardized multiple-choice exam, and to measure student perceptions of the classroom, we used a validated survey instrument. Our findings demonstrated that in an active learning classroom, student faculty contact could be reduced by two-thirds and students achieved learning outcomes that were at least as good, and in one comparison significantly better than, those in a traditional classroom. Concurrently, student perceptions of the learning environment were improved. This suggests that pedagogically speaking, active learning classrooms, though they seat fewer students per square foot, are actually a more efficient use of physical space.
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The purpose of this study was to explore the learning outcomes and challenges of implementing Technology-Enabled Active Learning (TEAL) in a university in Taiwan. A quasi-experimental study was designed to investigate the research questions. Two semesters of data were collected, including pre-/post-tests, questionnaire surveys, interviews, and class observations. The results indicated that the experimental groups (students in the TEAL classes) showed rather positive attitudes toward the innovative learning environment, and also outperformed the control groups (students in the traditional classes) in the academic achievement tests, in the second semester. However, the results of the surveys, interviews, and classroom observations also revealed the challenging aspects of TEAL implementation, including teaching skill adjustment, question design for peer-discussion, content selection, and integration of lecture content into lab activities. To fully benefit from the active, interactive learning environment, improvement to the overall instructional design was anticipated. Suggestions for strengthening future TEAL implementation were provided.
Chapter
This chapter explores notions of teaching in technical and vocational education and training (TVET) settings. To do this we will consider the essential differences between vocational and academic approaches to education discuss the diverse approaches to TVET teaching and the directions in which conceptions of it are moving consider what the role of being a teacher involves and how teachers are trained and developed to enhance the quality of their practice and vocational competence, and finally, present some conclusions. The authors' experience is largely in Australia and Europe, and so these will be the focus, and from where examples will be predominantly drawn. These are mature, yet diverse, TVET systems. TVET systems are increasingly becoming recognised by governments as very important to economic development through their focus on skills for the labour market. They are also seen as instruments of social policy, for example to assist those in particular social groups, such as those in poverty, or who lack marketable skills (Basu, 1997).
Article
Technology-Enabled Active Learning (TEAL) is a pedagogical innovation established in a technology-enhanced multimedia studio, emphasizing constructivist-oriented teaching and learning. In Taiwan, an increasing number of schools are adopting the TEAL notion to deliver courses. This study examines the impact of TEAL on both student performance and teachers’ teaching of physics in the context of one of the high schools. A quasi-experimental research approach was used to conduct the study. Data sources include pre-/post-tests, interviews, class observations, and the researcher’s journals. The findings reveal that the benefits that the participants gained from exposure to the innovative instruction appear in various aspects in addition to the students’ test results. Having higher interest in attending physics classes and being more active in participating in extracurricular science activities on the part of the students, and being more enthusiastic about and confident in helping students strengthen their physics concepts on the part of the teacher, are among the non-test score gains. The students’ achievements and positive responses to the teacher’s instruction seem to have motivated his dedication and confidence. It is also found that teachers’ teaching beliefs and desire to change greatly affected their classroom practices and technology integration. To more effectively implement instructional innovations in a school, suggestions are provided.