m zain effariza hanafi yahya don school of education and ... · | prosiding seminar kebangsaan...
TRANSCRIPT
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
815 | MEDC 2018
EDMODO SOCIAL LEARNING PLATFORM:
THE EFFECT OF FREQUENCY AND HIGH LEVEL COLLABORATION ON
STUDENTS’ KNOWLEDGE CONSTRUCTION
*1FARAH MOHAMAD ZAIN, 2EFFARIZA HANAFI &
3YAHYA DON
1, 3School of Education and Modern Languages, Universiti Utara Malaysia 2Department of Electrical Engineering Faculty of Engineering Universiti Malaya
Abstract: This study focused on the effect of the frequency and high level collaboration in the forum
board of Edmodo social learning platform towards the students’ construction of knowledge. A total of 42
undergraduate students of the School of Industrial Technology, Universiti Sains Malaysia enrolled for the
IMK 209- Food Physical Properties course are involved in this study. Findings of the study using
continuous monitoring, descriptive analysis and multiple regression showed that active and high level
collaboration occurred between students-lecturer and students-students that lead to meaningful knowledge
construction. The high level collaboration are the expository, explanatory and cognitive involving high
order thinking skills are found to take place in the collaboration. Further analysis utilising linear
regression analysis revealed that all high level collaborations have significant correlations with the
students’ construction of knowledge. Findings also showed that the majority of interactions were student-
centred where students play important roles in their construction of knowledge via their active
participation thus encouraging higher levels of learning.
Keywords: Edmodo social learning platform, collaboration, interaction pattern.
INTRODUCTION
Edmodo is known as a social learning platform designed by Jeff O’ Hara and Nick Borg in
2008. It is a free and private learning platform for teachers, students and parents to connect and
collaborate (Chada Kongcham, 2013; Halm et al., 2012). It is easy to apply to classroom
because the design is similar to Facebook but unlike Facebook, Edmodo social learning
platform (ESLP) offering many other learning features including creating new interaction styles
between instructors and students, promoting students interaction, boosting collaboration,
enhancing students’ experience from active environments, responding students immediacy,
sharing just-in-time contents to peers and linking lecture information and assignments to various
digital resources (Thongmak, 2013). In other words, ESLP is a social online learning platform
suitable for various educational purposes.
ESLP provides forum board for collaboration and interaction processes between
students-lecturer and student-students and are important in supporting construction of student’s
knowledge. According to Gushiken (2013) this learning tool is capable of generating
communication in a community whether small or large.
Forum board are used both for student and lecturer to collaborate and interact asynchronously.
According to Hiltz (1998), asynchronous collaboration is able to train students to commit to
learning according to the appropriate time. In general, the discussions in the forum boards
function as a space for knowledge sharing where the online dialogue within a community of
learners are transacted (Vosloo, 2012). These knowledge sharing will indirectly enhances the
degree of collaboration (Jones, 2010), develops self-reflection (Johnson, 2007), builds
Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam 2018
Penyunting: Rahimah Embong, Hanif Md Lateh @ Junid, Mustafa Che Omar, Mohamad Zaidin Mohamad & Abdul Hakim Abdullah
eISBN 978-967-2231-03-5 (2018), http: //www.unisza.edu.my/medc2018
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
816 | MEDC 2018
knowledge (Meyer, 2003) and enhance the student-centered learning environment (Omar et.al,
2007).
According to Robertson (2008), online interactions change teaching practices while
enhancing student learning experiences. It also manages to forming knowledge when a group of
students collaborate with each other (Chatti, Hamdan & Schaper, 2012), serves as a knowledge
base (Fitcher, 2005), promotes collaborative learning environment (Hughes & Narayan, 2009)
and keep all the discussion records and thread which enable students to revise the previous
version of the discussion when required (Watson, 2008).
There is also provision for ESLP to split the class into small dedicated group of
learners. According to Wei et al., (2005), the use of small group forums as a medium of ideas
and information sharing has the potential to produce more productive students as student can
explore more critically and greater depth on each of the given task (Slotter, 2010). This small
online group forum also allows students to access and share their work more effectively online
together (Arroyo, 2011) and at the same time improve the facilitation by the lecturer and
encouraging more active participation by the students from time to time (Robertson, 2008).
In this study, the forum board serves as a space for students to acquire knowledge either
from a lecturer or between students. Additionally, students may share additional notes, links or
learning materials related to the courses in this discussion room. Lecturer also use this space to
inform important course information such as those related to test dates or deadlines to complete
the assignments. Students also have the opportunity to give their opinions, criticize the opinions
of other students or give explanations in the process of building new knowledge.
RESEARCH MODEL AND HYPOTHESES
Collaborative learning is one of the important aspects of student-centered learning environment.
According to Liu & Milrad (2010), this learning focuses on a collaborative, social-oriented
process and prioritizes group dynamics. Therefore, collaborative learning is self-directed
learning within community of learners with each member in the group play important roles in
working together to achieve the objectives of the organization formed. Learning takes place in
this community and is facilitated by lecturer, so students are guided to achieve the specified
learning outcomes. The learning outcomes are designed and developed by the lecturer in such a
way that they are aligned with the learning objectives of the lesson.
Students are free to determine appropriate techniques and methods when discussing but the
discussion must be within the learning issues being established earlier by the group in order to
achieve the learning outcomes. Each student first undertake research independently to solve the
problem and bring their solutions back to the group. They subsequently discuss all the possible
solutions to the problems and after ensuing deliberation, they agreed on the group solution
pertain to the learning issues.
As such, collaborative learning not only involves collaboration activities but also
involves sharing of findings and results derived from student’s own independent learning
(Chatti, Hamdan & Schaper, 2012). This opinion is supported by Jonassen (1996) that
collaborative learning and working together on a learning issue can help students build more
meaningful knowledge than individual learning. Through collaborative learning, it is indirectly
able to build more effective communication skills and interaction, while also accepting other
people's opinions as well as criticism from other students.
Collaborating in small groups cater to the needs of every student where weak students
can benefit from a strong and good student from the contributions they have made. While active
students can challenge themselves by explaining what they think to all students, the weaker
students benefitted from such explanation. In this active collaborative learning environment, all
the students get the advantage and benefits. Students who collaborate in small groups generally
create a user-friendly environment where students feel safe to share knowledge and build new
knowledge they acquired and achieving the stipulated learning objectives.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
817 | MEDC 2018
In this study, ESLP provides students with the opportunity to work individually and
then share with other members of the group. The research model showing how the high level
dimensions of collaboration influence the construction of knowledge by the students is depicted
in Figure 1.
Figure 1: Research Model
The focus of this research is to look at the effect of the frequency and high level dimensions of
collaboration toward the knowledge construction by the students. As such, the focus of the
learning process as depicted in Fig. 1 is on collaboration with frequency of collaboration and
dimensions of high level collaboration (expository, explanatory and cognitive) are the enablers
to such knowledge construction. There are other learning activities undertaken by the students
utilizing various features of ESLP such as reading, personal reflection, assessment but these are
not part of this research.
Frequency of Collaboration
The frequency of collaboration refers to student posting during the discussion process (Curtis &
Lawson, 2001; Chapman, Ramondt & Smiley, 2005; Swan, Shen & Hiltz, 2006). The frequency
of collaboration in this study refers to the number of posting contributed by student during the
learning process. One posting can be defined as a contribution or student engagement regardless
of the quantity of words contained in the posting. Frequency of posting is obtained via database,
ESLP.
Most of the previous results shows that the effect of frequency of collaboration
influences the construction of knowledge and understanding of students (Curtis & Lawson,
2001; Chapman, Ramondt & Smiley, 2005). However, the findings were focused on the
frequency of collaboration in the student community (Chapman, Ramondt & Smiley, 2005) and
factors influencing the frequency of learning (Swan, 2002). There is also a study that looked on
the learning medium in influencing the frequency of online collaboration (Curtis & Lawson,
2001).
Continuing from previous studies, the researcher in this study examines the frequency
of collaboration among students in the teaching and learning process. This study focuses on
student engagement through forum board and the relationship between frequency of
collaboration and the construction of knowledge through the collaboration process. Therefore,
hypothesis 1 is proposed as followed:
H1 - The frequency of student posting in the ESLP affects the construction of knowledge
significantly.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
818 | MEDC 2018
High Level Dimensions of Collaboration
In this study, we utilised the dimensions of collaboration model proposed by Oliver &
McLoughlin (1997a) which classifies the collaboration into five main dimensions namely
social, procedural, expository, explanatory and cognitive. Social and procedural are the low
level collaboration which do not contribute much to the knowledge construction whereas the
expository, explanatory and cognitive are high level collaboration which contribute significantly
to the construction of knowledge. In this study, our focus is on the high level collaboration,
namely the expository, explanatory and cognitive but the low level collaboration social and
procedural are also taken into analysis.
Table 1 shows the descriptions of such dimensions and examples of each dialogues and
exchanges within such dimension as follows:
Table 1: Description and examples of dimensions of collaboration
Oliver, Omari & Herrington (1997) explored the student’s collaboration in a web-based learning
environment using four dimensions namely social, procedural, expository and cognitive. Oliver
& McLoughlin (1997a, 1997b) examines social, procedural, expository, explanatory and on the
dialogue exchanges category between lecturer and students. High quality engagement promotes
collaboration in support groups that subsequently produce quality online learning (Garrison,
1997; Gunawardena & Zittle, 1997). Othman, Atan & Guan (2005) found that frequent
collaboration with the purpose of teaching in asynchronous forum board has created a positive
learning environment. However, the results of their studies found that lack of active
collaboration in cognitive dimension.
In this study, all the collaborative dimension are derived from monitoring of each
student posting and classified them according to the rubric that have been pilot tested for
Dimensions of
collaboration
Description Examples
Social Establishing and developing
rapport
Teacher: Hello Sally, how are you?
Student: Very well thank you.
Teacher: Great to hear from you. What are you
going to do for us?
Procedural Explanation on course
requirements and procedures
Student: Mr. Gray, can you tell me how many
pages you want us to write?
Teacher: I'm looking for about 2 pages in total.
Student: Can we use a topic of our own choice?
Expository Demonstration of knowledge
or skills in response to a direct
request from one another
Teacher: Can anyone tell me how we say,
"Today it is warm"?
Student: Samui desu?
Teacher: Not quite, it is . . .
Explanatory Lecturer using students’
responses to explain
knowledge and develop
content
Teacher: This is how we ask that question in
Japanese.... Sally, can you now ask your
question?
Student: Sally asks her question . . .
Teacher: Great Sally, but did you
remember to . . . John, will you please ask your
question?
Cognitive Lecturer providing
constructive feedback to a
student to reflect and to
reconsider an alternative
perspective/reality
Teacher: Can you tell me what you think was
the main reason
for his actions?
Student: He was angry and wanted to get even.
Teacher: But was that all? What
about his wish to improve his position and
standing?
Student: I suppose he did but I thought that he
would have done it differently.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
819 | MEDC 2018
scoring consistency by researchers. In the pilot testing, the dimension of the collaboration are
assessed through a self-developed rubric and verified by two experts in this field. Two
independent appraisers who were not involved in this study also tested the rubric by
categorizing the collaboration provided by the researchers. The results obtained by both
appraisers are consistent.
In addition at looking at the effect of the frequency towards students’ knowledge
construction, this study also looks at the extent to which the high level dimensions of
collaboration significantly affecting the knowledge construction of the students over the period
of this course being offered. Therefore, hypothesis 2 until hypothesis 4 are proposed.
H2 - The posting of the expository dimension in the ESLP affects the construction of
knowledge significantly.
H3 - The posting of the explanatory dimension in the ESLP affects the construction of
knowledge significantly.
H4 - The posting of the cognitive dimension in the ESLP affects the construction of
knowledge significantly.
METHODOLOGY
This study involved 42 students of the School of Industrial Technology, Universiti Sains
Malaysia who enrolled for IMK 209-Food Physical Properties. Students were first briefed in the
introductory lecture of the course during their first week. They were instructed and guided step
by step on how to participate in the ESLP and all tasks are given and explained.
As a learning designer, the lecturer has designed challenging and appropriate tasks
earlier in such a way that the tasks are aligned with the course learning objectives. Students
were also told that they themselves should be constructing their own knowledge and new idea in
the forum board by actively participating in the collaboration within their designated small
group. Lecturer will be a facilitator to the discussion and will provide probing questions and
provide the necessary online resources in assisting the group to find the solution to learning
issues and completing the tasks successfully.
Researchers used monitoring methods to obtain information about frequency of student
posting and high level dimension of collaboration between students. Frequency of student
posting is the number of students posting in the ESLP during the entire 14 weeks IMK 209
course being offered. It can be calculated automatically through the ESLP database. Figure 2
shows how the researchers gained the frequency of student posting in the ESLP. For example, a
student Tan L. has done 89 posting throughout the course. Lecturer always encourage every
student to be active and their posting and the frequencies are constantly monitored from time to
time.
Figure 2: Frequency of student posting
Student collaboration is monitored in the ESLP and is classified into three high level
dimensions of collaboration based on the above research model.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
820 | MEDC 2018
RESULTS
Descriptive analysis
Descriptive analysis involves the extraction of the frequency of student and lecturer posting
along with the categorizing the number of posting within the specific and designated high level
dimensions of collaboration.
Frequency Posting
i. Students
Frequency of student posting refers to the number of student posting in the ESLP during
collaboration between student-student and student-lecturer as well as learning materials. In this
study, one posting is counted as a contribution or student engagement regardless of whether the
posting pertains to academic or social communication. Table 2 shows the frequency of student
posting in the ESLP. The findings show the minimum number of student posting is 1 time while
the maximum number of student posting is 118 times. Mean for student posting is = 28.60, SD
= 28.85.
Table 2: Student posting in the
ESLP
Student Posting (n=42)
Minimum 1
Maxsimum 118
Mean, 28.60
Standard
Deviation
28.85
Total of
Posting
1,201
posting
Posting/student 2.04/week
Figure 3: The frequency of student posting
Figure 3 shows the frequency of student posting in the ESLP. The findings demonstrated the
existence of active collaboration between student-student and student-lecturer which assisted the
construction of students’ knowledge in the ESLP. During the 14 weeks of the course, the entire
student's recorded posting was 1,201 and on average, a student contributed 2.04 posting a week.
This first finding outlines the significant of the quantity of collaboration in the ESLP which
enhances students’ construction of knowledge during such activities. According to Shin (1998);
Leem (1999); Lim (1999), among the factors that influence the active involvement of students
are the students' knowledge of the course, the personality characteristics of the students, the role
of lecturer and the feedback received. The results of this study prove that the role of lecturer in
providing feedback and instruction has encouraged the active participation of students.
Noorizdayantie et al (2009) argue that the frequency of collaboration reflects the effort
contributed by the group members to complete the given assignment. The results show that
there is a relationship between frequency of collaboration and learning quantities acquired by
the students.
Results of the second finding recorded a satisfactory of frequency of posting. Among
the factors contributing to the high frequency of student posting are likely due to the role of
course lecturer encouraging their students to continue to collaborate. Hara, Bonk & Angeli
(2000) found that on average, students only contributed one posting within a week. This finding
is consistent with the study of Schellens & Valcke (2005) which also found that on average,
students contributed 1.48 posting within a week. Lee (2012) reported on average, his students
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
821 | MEDC 2018
contributed 3.36 posting within a week. In contrast to Pham et al. (2014) found that their
students only contributed 0.1 posting within a week. According to him, students are only
involved in group assignments and completing assignments if encouraged and made compulsory
by course lecturers. They will not learn voluntarily online.
ii. Lecturer
Table 3 shows the frequency of lecturer posting for Week 1 until Week 14 with the total number
of lecturer posting of 165 times.
Table 3: Posting lecturer in
the ESNP
Week Number of
Posting
Week 1 11
Week 2 32
Week 3 51
Week 4 6
Week 5 21
Week 6 18
Week 7 10
Week 8 8
Week 9 0
Week 10 3
Week 11 2
Week 12 1
Week 13 0
Week 14 2
Total 165
Figure 4: The frequency of lecturer posting
Figure 4 shows the frequency of lecturer posting is significantly more in the first week. It shows
lecturer collaborating actively to help students learn in the initial part of the learning process.
However, on week 9 onwards, the number of post lecturer decreased and tapered drastically. It
is likely that the students have natured and cultivated the collaboratively activity and the lecturer
only act within a passive facilitator role.
Dimensions of Collaboration
i. Students
There are five dimensions for collaboration namely social, procedural, expository, explanatory
and cognitive dimensions (Oliver & McLoughlin (1997a)) being investigated and we examined
the dominant dimensions of collaboration during the teaching and learning process as well as
their relationship with the mean score of the construction of knowledge.
The findings were obtained through the monitoring of the collaboration that have taken
place in the ESLP. Table 4 and Figure 5 show the percentages of each collaboration dimensions.
It is found that the highest percentage value is expository dimension which recorded a
percentage of 27.1% with 325 postings followed by social dimension with 243 posting (20.2%).
The collaboration dimension with the lowest mean value is cognitive dimension of 16.6% with a
total number of postings of 199. This finding demonstrates that the collaborative dimensions
transpired in student-student and student-lecturer interaction are those involving high-level
dimensions (expository, explanatory and cognitive) with total percentage of 52.6% and these
dimensions related to construction of knowledge.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
822 | MEDC 2018
Table 4: Percentages of each collaboration dimensions by student Collaboration
Dimension
Collaboration
Level
Number of
Posting
Percentage
(%)
Total Percentage
(%)
Social Low 243 20.2 37.4
Procedural 207 17.2
Expository High 325 27.1 62.6
Explanatory 227 18.9
Cognitive 199 16.6
Total 1201 100
Figure 5: Percentages of each collaboration dimensions by student
Predictably, expository recorded the highest posting possibly because as a group assignment
given by a lecturer which requires each group member to give opinions and views in solving the
problem. Most of them are looking for self-contained learning materials and sharing them with
other friends. At the same time, lecturer also play an important role to encourage students to
share ideas and knowledge through the discussion forums. This finding is supported by Omar et
al., (2007) in his study using an open learning management system for the delivery of distance
education courses. They reported that expository (44.8%) was also the dominant dimension of
collaboration followed by procedural (25.7%), social (21.1%) and explanatory (7.4%). While
cognitive (1.0%) is the lowest dimension of collaboration.
Liew & Teoh (2011) in his study to ensure that the quality of online teaching and
learning also found that expository was the most dominant (32%) followed by explanatory
(27%), procedural (23%), social (10%) and cognitive (8%). They argue that expository only
involves demonstrations of knowledge or facts without the need for detailed descriptions.
However, cognitive involving constructive feedback and detailed review of content through
critical thinking leading to student construction of knowledge still need to be improved.
In contrast to this findings, Teoh et. al., (2010) in his study on student interaction
between degree students and postgraduate students, the dominant dimension of collaboration for
undergraduate students was procedural (29%), while for postgraduate students exhibited the
explanatory dimension with the percentage of 33%.
One interesting observation is that social dimension recorded the second highest
percentage. It is likely that each student needs to introduce themselves before starting group
tasks in order to establish a good relationship between them. It also illustrates that every
member of the group strives to identify other members of his group while the appointed leader
of the group plays a role to create an effective group to complete the assignment together. It is
clear that existing social collaboration not only meets the learning needs, but also fulfils social
needs for bonding and friendship. Social dimension also occurs when students get social
feedback from their course lecturer or colleagues through personal encouragement and
motivational help (Gunawardena and Zittle, 1997; McDonald & Gibson, 1998). This is in line
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
823 | MEDC 2018
with Vygotsky (1978) who argues that social interaction in cooperative learning is capable for
build cognitive and emotional imagery of reality.
Overall, it was found that the expository, explanatory and cognitive achieved a high
level of collaboration with recorded percentage of 62.6%. This suggests that lecturer has
successfully engaged students in the process of teaching and learning and illustrate that lecturers
have has successfully stimulated students' level of understanding towards content.
ii. Lecturer
This analysis relates to the classification of social, procedural, expository, explanatory and
cognitive dimensions of collaboration for lecturer posting. Each dimension of lecturer posting is
monitored throughout a semester.
Table 5: Percentages of each collaboration dimensions by lecturer Collaboration
Dimension
Collaboration
Level
Number of
Posting
Percentage
(%)
Total Percentage (%)
Social Low 66 40.0 79.4
Procedure 65 39.4
Expository High 32 19.4 20.6
Explanatory 2 1.2
Cognitive 0 0.0
Total 165 100
Figure 6: Percentages of each collaboration dimensions by lecturer
Table 5 and Figure 6 show the number of lecturer posting in the ESLP for each dimension of
collaboration. Analysis of the data obtained shows the highest number of posting is social
dimension with the number of posting 66 times. This was followed by procedural dimension
with a total number of posting 65 times. Next is expository dimension with the number of
posting 32 times while the number of explanatory dimension posting is 2 times. The lecturer's
posting distribution shows that lecturer are practicing student-centered learning where lecturer
act to facilitate learning.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
824 | MEDC 2018
iii. Comparison of Student-Lecturer Collaboration Dimensions
Table 6 and Figure 7 show the differences in the five dimensions namely social, procedural,
expository, explanatory and cognitive dimensions on students and lecturer.
Table 6: Comparison of student-lecturer collaboration dimensions Collaboration
Level
Low Level High Level
Social Procedure Expository Explanatory Cognitive Total
Student 243
(20.2%)
207
(17.2%)
325
(27.1%)
227
(18.9%)
199
(16.6%)
1201
Lecturer 66 (40%) 65
(39.4%)
32
(19.4%)
2
(1.2%)
0
(0%)
165
Total 309 272 357 229 199 1366
It was found that the highest dimension of collaboration for students was expository (27.1%)
while the highest dimension of collaboration for lecturer was social (40%). Table 6 also shows
that student collaboration dimension involving high-level dimensions for the highest percentage
of 62.6% while lecturer's collaborative domain involves low-level dimensions which record the
highest percentage of 79.4%. This proves that lecturers encouraged student-centered learning
practices in teaching and learning that require students to collaborate and generate their own
knowledge while lecturer only play a role in facilitating.
Figure 7: Comparison of student-lecturer collaboration dimensions’ percentage
Figure 7 shows that student collaboration is higher in the high-level collaboration dimension
(expository, explanatory and cognitive) and this indicates that students are active in
collaboration and played their required roles successfully in generating their own knowledge
while lecturer acts as facilitators.
Linear Regression
The researcher uses linear regression analysis to see the extent of the relationship between
frequency of posting and construction of knowledge score.
Frequency of Posting and Construction of Knowledge
Table 7a shows range of frequency of posting with the number of students involved in the
postings within such a range. The results show that the majority of students are involved in the
range of posting between 1 to 40 posting (80.95%) with 34 students are involved out of 42
students. There 10 students who are extremely active with the range of posting between 41-120
postings.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
825 | MEDC 2018
Table 7a: Mean of Frequency Posting Range of
Frequency of
Posting
Number of
Student
Frequency of Posting Mean of
Frequency of
Posting
1-20 22 1,2,3,4,5,9,9,10,10,11,11,11,11,12,13,13,14,15,15,17,
17,18
10.50
21-40 12 21,22,23,23,24,24,26,28,29,29,37,39 27.08
41-60 2 45,56 50.50
61-80 2 66,72 69.00
81-100 2 89,96 92.50
101-120 2 103,118 110.50
Total 42
Table 7b shows the mean score of construction of knowledge. These include the posting for
discussion and completing assignments and other teaching and learning activities. The scores of
construction of knowledge are calculated from these three tasks during this course. Tasks are
group assignment (40%), reading assignment (40%) and short activity (20%). Scores of
construction of knowledge are sorted by the range of frequency posting. Mean score of the
construction of knowledge is calculated to identify their performance.
Figure 8: Mean score of construction of knowledge with mean
of frequency of posting
Figure 8 shows the mean score of construction of knowledge against the mean of frequency of
posting. The straight line indicates that more frequent students posting, which correlated with
the higher constructed knowledge score. Table 7c shows linear regression analysis and shows
that there is a significant relationship between these two parameters (p <0.05) with 80.3%
variance. This proves that there is a significant and positive relationship between the two
variables with the correlation coefficient of 0.896.
Table 7c: Linear regression for the mean score of construction of knowledge with mean of
frequency of posting Dependent
Variable
R2 Independent
Variable
Beta (β) Ralat
Piawai (β)
t-statistic Significant
Mean score of
construction of
knowledge
0.803 Mean of
frequency of
posting
0.896 0.022 4.036 P<0.05
The findings are likely due to the active participation of students to ask questions and to seek
clarification of the learning issues as well as providing ideas and suggestions. Such interactions
encourage students to ask questions, clarify and justify each opinion, voice the idea, give a
review, reflect on their knowledge and motivate students and improve their learning
performance. Young (2008) stated asynchronous collaboration can improve student
achievement where students can exchange opinions, share perspectives and apply knowledge in
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
826 | MEDC 2018
order to find the best solution to complete the assignment and subsquently enhance
achievement.
Noorizdayantie (2012) suggested that high frequency of collaboration among the
students are imprerative in developing a high level of understanding. Khor (2014) found that
there was a positive relationship between student involvement in collaboration with learning
performance and this meant that more students collaborated, the better are their learning
performances. The interactions that occur during the learning process enable students to solve
their doubts by accepting feedback and ideas from their lecturer as well as their peers in
enhancing their understanding of the topics learned.
Atan, Samsudin & M Idrus (2003), on the other hand suggested that collaboration
involving lecturer and student is a feature that exists in the constructivist learning environment
and plays an important role in the construction of knowledge. Students comprehension and
understanding are articulated through statements, consultation and reflection of ideas or
opinions. This indirectly encourages students to think, build knowledge, explore the skills of
other students and social support through the observation of each member's contribution
(Jonassen et al., 1995). Harasim (1997) also argues that collaborative learners can reduce fears
and uncertainties rather than learning alone without any collaboration. This situation is able to
increase the motivation and satisfaction of the students towards the learning process.
Effect of Dimensions of collaboration towards the students’ construction of knowledge
The effects of the dimension of collaboration namely expository, explanatory and cognitive
towards the student construction of knowledge are analysed and presented below.
i. Expository Dimension towards Construction of Knowledge
Expository dimension in this study refer to student posting that provides exposure on learning
materials such as sharing learning materials between student-student and student-lecturer during
collaboration. It is a high-level collaborative dimension that contributes to construction of
knowledge. Table 8a shows the percentage distribution of the number of students with each
range of posting. The majority of students collaborated with expository dimension are within 0-
9 postings range (81%).
Table 8a: Mean of expository dimension Range of
Posting
Number of
Student
Percentage Expository Dimension Posting Mean of
posting
0-9 34 81% 0,0,0,0,0,0,1,1,1,2,2,2,2,3,3,3,3,4,4,
4,4,5,5,5,5,5,6,6,7,7,8,8,9,9
3.65
10-19 2 4.8% 17,17 17.00
20-29 3 7.1% 20,23,24 22.33
30-39 3 7.1% 31,33,36 33.33
Total 42
Table 8b shows the range of expository dimension posting with mean score of student
construction of knowledge. Mean score of construction of knowledge, = 84.67 with the range
of posting between 30-39 postings recorded the highest mean value while mean score of
construction of knowledge, , = 76.59 with range of posting between 0-9 posting recorded the
lowest mean value. The findings show that the mean score of student construction of knowledge
is increasing as the range of posting increases (Figure 9).
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
827 | MEDC 2018
Figure 9: Mean of expository dimension posting with
mean score of construction of knowledge
Table 8c shows the mean of expository dimension posting affect the mean score of construction
of knowledge significantly (p <0.05) with variance 93.2%. This proves that there is a positive
correlation between two variables with correlation coefficient (β) 0.966.
Table 8c: Linear regression for expository dimension posting Dependent
Variable
R2 Independent
Variable
Beta (β) Ralat
Piawai (β)
t-Statistic Significant
Mean Score of
Construction of
Knowledge
0.932 Mean of
Expository
Dimension
Posting
0.966 0.054 5.252 P<0.05
Therefore, H2 is supported. According to Omar et al., (2007), expository may be dominated by
opinion-based posting to fulfill the tasks assigned by the lecturer or student. In this study,
students are responsible for sharing learning materials with other colleagues. These shared
learning materials are used for group assignment completion. Sharing this learning material
indirectly helps to improve student knowledge.
In this study, the H2 was probably supported because of self-learning methods
emphasized in the teaching and learning process. Therefore, students need to be independent
and seek to identify and examine the information or learning materials that are appropriate to
the topics to be discussed before sharing them. This process indirectly requires students to think
and work independently and this self learning help in the construction student individual
knowledge.
ii. Explanatory Dimension towards Construction of Knowledge
Explanatory dimension in this study refers to a student posting that provides an explanation for
solving problem-related courses and assignments between student-student and student-lecturer
during collaboration in the ESNP. It is a high-level collaborative dimension that contributes to
construction of knowledge. Table 9a shows the percentage distribution of the number of
students with each range of posting. The majority of students collaborated with explanatory
dimension are within the 0-8 postings range (81%).
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
828 | MEDC 2018
Table 9a: Mean of explanatory dimension Range of
Posting
Number of
Student
Percentage Explanatory Dimension Posting Mean of Posting
0-8 34
81% 0,0,0,0,0,0,0,0,1,1,1,1,1,1,1,2,2,2,2,2,
2,2,3,3,3,4,4,4,5,6,6,8,8,8
2.44
9-17 4 9.5% 9,10,10,12 10.25
18-26 2 4.8% 23,26 24.50
27-35 2 4.8% 27,27 27.00
Total 42
Table 9b shows the range of explanatory dimension posting with mean score of student
construction of knowledge. Mean score of construction of knowledge, =84.50 with range of
explanatory dimension are in between 18-26 postings recording the highest mean value while
mean score of construction of knowledge =77.03 with range of explanatory dimension post
between 0-8 posting recorded the lowest mean value. The findings show that the mean score of
student construction of knowledge is increasing as the explanatory dimension posting increases
(Figure 10).
Figure 10: Mean of explanatory dimension posting
with mean score of construction of knowledge
Table 9c shows that mean of explanatory dimension posting significantly affected mean score of
construction of knowledge (p <0.05) with variance 93.0%. This proves that there is a positive
relationship between two variables with correlation coefficient (β) 0.964.
Table 9c: Linear regression for explanatory dimension posting Dependent
Variable
R2 Independent
Variable
Beta (β) Ralat
Piawai (β)
t-Statistic Significant
Mean Score of
Construction of
Knowledge
0.930 Mean of
Explanatory
Dimension
Posting
0.964 0.055 5.252 P<0.05
Hence, H3 is supported. According to Othman, Atan & Guan (2005), explanatory refers to
discussions between lecturer and student who are known to be able to lead understanding and
build knowledge to a higher level. Mohaidin (1999), suggest that expalanatory also involve the
active involvement of students to find the information needed, analyze, evaluate and explain to
lecturer or other students and these are imprerative to the new construction of knowledge.
In this study, the H3 is supported because of the role of students who initiated the
communication that leads to cooperative and collaborative activities among students as well as
enhancing the level of reflection and cognition as well as promoting high-level thinking. This
process successfully helped to improve student construction of knowledge. In addition, the
lecturer also succeeded in promoting and build a condusive learning environment with high
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
829 | MEDC 2018
level of communication, collaborative and student-centered activities that are seen to enhance
the construction of students’ knowledge.
iii. Cognitive Dimension towards Construction of Knowledge
Cognitive dimension in this study refers to a student posting that provides positive feedback and
reflection between student-student and student-lecturer during collaboration. It is a high-level
collaborative dimension that contributes to construction of knowledge. Table 10a shows the
percentage distribution of the number of students with each range of posting. The majority of
students collaborated with cognitive dimension are within the 0-7 postings range (78.6%).
Table 10a: Mean of cognitive dimension Range of
Posting
Number of
Student
Percentage Cognitive Dimension Posting Mean of
Posting
0-7 33 78.6% 0,0,0,0,1,1,1,1,1,1,1,1,2,2,2,2,2,2,2,2,3,3,3,4,4,
4,5,6,6,6,6,6,7
2.64
8-15 6 14.3% 8,9,9,9,11,13 9.83
16-23 3 7.1% 16,17,20 17.67
Total 42
Table 10b also shows the range of cognitive dimension posting with mean score of student
construction of knowledge. Mean score of construction of knowledge, = 82.33 with range of
cognitive dimension posting between 16-23 postings recorded the highest mean value while
mean score of construction of knowledge, = 77.18 with range of posting between 0-7 postings
recorded the lowest mean value. The findings show that the mean score of student construction
of knowledge is increasing as the frequency of cognitive dimension posting (Figure 11).
Figure 11: Mean of cognitive dimension posting with mean
score of construction of knowledge
Table 10c shows that the mean of cognitive dimension posting influences mean score of
construction of knowledge significantly (p <0.05) with variance 93.0%. This proves that there is
a positive relationship between the two variables with the coefficient of correlation (β) 0.998.
Table 10c: Linear regression for cognitive dimension posting Dependent
Variable
R2 Independent
Variable
Beta (β) Ralat
Piawai (β)
t-Statistic Significant
Mean Score of
Construction of
Knowledge
0.930 Mean of
Cognitive
Dimension
Posting
0.998 0.024 14.254 P<0.05
Therefore, H4 is supported. This finding supports previous studies (McLoughlin & Luca, 2000;
Brown, Collins & Duguid, 1989). According to Oliver & Reeves (1996), cognitive dimension
involves statements and actions that are used to promote learning processes and are usually
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
830 | MEDC 2018
associated with high level cognitive processing by students. The high level of interaction and
collaboration among students is a good indicator of the learning environment in which both
processes support high level of cognitive activity.
This dimension promotes high-level thinking and improves memory retention as well as
provides a better understanding of content. This is because they need to restructure the opinions
and ideas they get and these situations require them to think constructively. This indirectly
affects the construction of student knowledge.
Mason (1991) in his study found that lecturer played an important role in enhancing the
effectiveness of collaboration. However, only highly skilled lecturer is able to promote the
cognitive dimension discussion process by solving problems in a new perspective, addressing
real problems to enable students to find and share learning resources while directing meaningful
collaborative patterns and active participation among students.
In this study, the H4 is supported because this dimension encourages students to
elaborate new knowledge deeply and students need to identify problems and analyse them
together. This process enables high level of knowledge and understanding to be formed among
the students and at the same time influence the construction of their knowledge. In addition,
lecturer also play an important role in ensuring generate cognitive dimension while they
collaborate.
Relationship between dimensions of collaboration with construction of knowledge are
summarized as Table 11.
Table 11: Relationship between dimensions of collaboration with construction of knowledge Dimensions of
Collaboration
Level Relationship Coefficient of
Correlation, β
Expository High Positive 0.966
Explanatory Positive 0.964
Cognitive Positive 0.930
Overall, the findings support all the hypotheses proposed by researchers, H1, H2, H3 and H4.
Therefore, the researchers conclude that the frequency of student posting influences the
construction of knowledge. The higher the number of posting frequencies, the higher the
construction of knowledge. In addition, researchers also conclude that high level collaboration
that is expository, explanatory and cognitive should be given significant attention and emphasis
in an effort to improve the construction of students’ knowledge in any social based-online
learning.
CONCLUSION
In conclusion, this study reveals that the rate of collaboration is significantly related to the
construction of knowledge in an online learning environment with our data very much
supporting such a conclusion. Overall, this study shows some useful findings for educators to
understand students’ online interaction patterns. It provides a new way to code the threaded
discussion posted by student and several innovative analysis approaches and techniques to
encourage students to post the discussions with higher order thinking skills which encourage to
high level of knowledge construction. We believe future studies are warranted to assess
students’ online postings, online learning success in discussion-oriented online courses, and to
understand the relationship between students’ postings and their learning outcomes.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
831 | MEDC 2018
REFERENCES
Anderson, S.E & Harris, J.B (1997). Factors associated with amount of use and benefits
obtained by users of a statewide Educational Telecomputing Network, Educational
Technology Research and Development, 45(1), 19-50.
Arroyo, C.G. (2011) On-Line Social Networks: Innovative Ways towards the Boost of
Collaborative Language Learning: http://www.pixel-
online.net/ICT4LL2011/common/download/paper_pdf/CLL16-428-FP-Gonzalez-
ICT4LL2011.pdf
Atan, H., Samsudin, D. S., & M Idrus, R. (2003). The Effects Of Collaboration In The
Constructivist Web-Based Learning Environment Of An Undergraduate Physics Course.
Malaysian Journal of Educational Technology, 3(1), 45–52.
Bruce K. Gushiken. (2013)Integrating Edmodo into a High school service club: To promote
Interactive online communication, 18th Annual TCC online conference 2013, Hawai,
USA.
Brown, J. S., Collins, A., & Duguid, P. (1989). Situated cognition and the culture of learning.
Educational Researcher, 18(1), 32-42.
Chada Kongchan. (2013) How Edmodo and Google Docs can change traditional classrooms,
The European Conference on Language Learning 2013, Brighton, United Kingdom,
paper#0442.
Chapman, C., Ramondt, L., & Smiley, G. (2005). Strong community, deep learning: Exploring
the link. Innovations in Education and Teaching International, 42(3), 217-230.
Chatti, M. A., Hamdan, N. A., & Schaper, H. (2012). Collaboration in mobile learning
seminar.Proceedings of the Mobile Learning Computer-Supported Learning Research
Group Conference (CALRG 2011). The Open University, United Kingdom.
Curtis, D. D., & Lawson, M. J. (2001). Exploring collaborative online learning. Journalof
Asynchronous Learning Networks, 5(1), 21-34.
Fitchter, D. (2005). The many forms of e-collaboration: Blogs, wikis, portals, groupware,
discussion boards, and instant messaging. Online 29(4), 48-50.
Garrison, D. R. (1997). Computer conferencing and distance education: Cognitive and social
presence issues. The new learning environment: a global perspective. ICDE World
Conference, Pennsylvania State University.
Gunawardena, C. N. & Zittle, F. (1997). Social presence as a predictor of satisfaction within a
computer mediated conferencing environment. American Journal of Distance Education,
11(3), 8-26.
Halm,J., Tullier, C., D’Mello, A., Bartels, R., Wittman, A., Lamboley, D., Smith, T., Hartless,
R. N., Lay, M., Gockenbach, J., Bucholtz, B., and Nichols, L. (2012). Use of Social
Networking Tools in Unit 5. SNT White Paper. Unit 5 Citizens Advisory Counsel.
Hara, N., Bonk, C. J., & Angeli, C. (2000). Content analysis of online discussion in an applied
educational psychology course. Instructional Science, 28(2), 115-152.
Harasim, L. (1997). Interacting in hyperspace, in University of Maryland System Institute for
Distance Education and International University Consortium Conference on Learning,
Teaching Interacting in Hyperspace: The potential of the
Web.http://umuc.edu/ide/potentialweb97/harasim.html
Hiltz, S. R. (1998). Collaborative Learning in Asynchronous Learning Networks: Building
Learning Communities. Paper presented at the 3rd WebNet 98 World Conference of the
WWW, Internet, and Intranet. 7-12 November 1998. Orlando.
Hughes, J. E., & Narayan, R. (2009). Collaboration and learning with wikis in postsecondary
classrooms. Journal of Interactive Online Learning, 8 (1), 63-82.
Johnson, H. (2007). Dialogue and the construction of knowledge in e-Learning: Exploring
students’ perceptions of their learning while using Blackboard’s asynchronous discussion
board. European Journal of Open, Distance and E-Learning. Available:
http://www.eurodl.org/materials/contrib/2007/Henry_Johnson.htm.
Jonassen, D. H. (1996). Computer in the classroom: Mindtools for critical thinking, Columbus,
OH: Merrill/Prentice-Hall.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
832 | MEDC 2018
Jonassen D., Davidson, A., Collins, M., Campbell, J., & Haag, B.B. (1995). Constructivism and
computer-mediated communication in distance education. The American Journal of
Distance Education, 9(2), 7-26.
Jones, P. (2010). Collaboration at a distance: Using a wiki to create a collaborative learning
environment for distance education and on-campus students in a sosial work course.
Journal of Teaching in Social Work, 30(2), 225-236.
Jung, I., Choi, S., Lim, C., & Leem, J. (2002). Effects of Different Types of Interaction on
Learning Achievement, Satisfaction and Participation in Web-Based Instruction.
Innovations in Education and Teaching International, 39(2), 153–162.
http://doi.org/10.1080/1355800021012139
Khor, E. T. (2014). Collaborative content organiser (CCO) learning system: an empirical study
using the Technology Acceptance Model (TAM). (PhD Thesis, Universiti Sains
Malaysia. Unpublished).
Lee, J. (2012). Patterns of interaction and participation in a large online course: strategies for
fostering sustainable discussion. Educational Technology & Society, 15(1), 260-272.
Leem, J. H (1999). Effects of small group learning strategies in web-based problem solving
environment on discussion participation and problem-solving. Unpublished doctoral
dissertation, Seoul National University.
Liew, T. K. & Teoh, A. P. (2011). Assuring the quality of online teaching and learning: The
case of Wawasan Open University. Proceedings of the 25th Annual Conference of Asian
Association of Open Universities, Malaysia.
Lim, C.I (1999). Integrated approach in designing interactive WBI. Korea Journal of
Educational Research, 15(1), 3-24.
Liu, C. C. & Milrad, M. (2010). Guest editorial – one-to-one learning in the mobile and
ubiquitous computing age. Educational Technology & Society, 13(4), 1-3.
Mason, R. (1991). Moderating educational computer conferencing. DEOSNEWS1(19).
http://www.emoderators.com/papers/mason/html
McDonald, J and Gibson, C.C (1998). Interpersonal dynamics and group development in
computer conferencing. American Journal of Distance Education, 12(1), 7-25.
McLoughlin, C. and Luca, J. (2000). Cognitive engagement and higher order thinking through
computer conferencing: We know why but do we know how? In A. Herrmann and M.M.
Kulski (Eds), Flexible Futures in Tertiary Teaching. Proceedings of the 9th Annual
Teaching Learning Forum, 2-4 February 2000. Perth: Curtin University of Technology.
[Available] http://lsn.curtin.edu.au/tlf/tlf2000/mcloughlin.html
Meyer, D. K. A. (2003). Face-to-face versus threaded discussions: The role of time and higher-
order thinking. Journal Asynchronous Learning Networks, 7(3), 55-65.
Mohaidin, J. (1999). Konstruktivisme: Aplikasinya dalam rekabentuk pembelajaran berasaskan
web. Teknologi Instruksi dan Pendidikan Bestari: Persediaan dan Cabaran dalam Alaf
Baru: 1-14, Persatuan Teknologi Pendidikan Malaysia, Kuala Lumpur.
Murphy, K.L & Collins, M.P (1997). Development of communication conventions in
instructional electronic chats. Journal of Distance Education, 12, 177-200.
Noorizdayantie, S. (2012). Pembelajaran berasaskan masalah (PBM) atas talian : kajian
kolaborasi asinkronous forum board dan penjanaan pengetahuan dalam ruang kerja wiki
(Master tesis, Universiti Sains Malaysia).
Noorizdayantie, S., Zain, F. M., Kamar, N. A. N., & Sahimi, S. M. (2009). the Online Problem
Based Learning : the Effect of Collaboration Towards the Construction of Knowledge.
Computers in Education, 371–375.
Salmon, G (1999). Computer mediated conferencing in large scale management education,
Open Learning, 14(2), 34-43.
Thongmak, M. (2013a). Adopting Edmodo© to Enhance Classroom Collaboration: Thailand
Case. 21st International Business Information Management Association Conference, 17–
29.
Ohlund, B., Yu, C. H., Jannasch-Pennell, A., & Digangi, S. A. (2000). Impact of asynchronous
and synchronous Internet-based communication on collaboration and performance among
K-12 teachers. Journal of Educational Computing Research, 23(4) 405-420.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
833 | MEDC 2018
Oliver, R. & McLoughlin, C. (1997a). Interaction in audiographics teaching and learning
environments. The American Journal of Distance Education, 11(1), 34-54.
Oliver, R., Omari, A. & Herrington, J. (1997). Exploring student interaction in collaborative
World Wide Web learning environments. ED-MEDIA/EDTELECOM 1997. Calgary,
Canada, II, 812-817. http://ecu.edu.au/oliver/docs/97/EM1doc.pdf
Oliver, R., Omari, A. & Herrington, J. (1997). Exploring student interaction in collaborative
World Wide Web learning environments. ED-MEDIA/EDTELECOM 1997. Calgary,
Canada, II, 812-817. http://ecu.edu.au/oliver/docs/97/EM1doc.pdf
Oliver, R., & T. Reeves. (1996). Dimensions of effective interactive learning with telematics.
Educational Technology Research and Development, 44(4), 45-56.
Omar, M., Rohana, M. Y., Zuraidah, A. R., Ahmad, H. M., Noraida, A. G., & Hanafi, A.
(2007). Problem-based learning and the open source learning management system delivery of
the distance education program. Paper presented at the 21st Asian Association Open
Learning Conference. 14 March 2007. Open University Malaysia.
Othman, S.A.S., Atan, H. & Guan, C. K. (2005). The Open University learning management
system: A study of interaction in the asynchronous Forum Board. International Journal
of Instructional Technology & Distance Learning, 2(11), 3-10.
Pham, T., Thalathoti, V., & Dakich, E. (2014). Frequency and pattern of learner-instructor
interaction in an online English language learning environment in Vietnam. Australasian
Journal of Educational Technology, 30(6), 686–698.
Robertson, I. (2008). Learners’ attitudes to wiki technology in problem based, blended learning
for vocational teacher. Australia Journal of Education Technology, 24(4), 425-441.
Schellens, T. & Valcke, M. (2005). Collaborative learning in asynchronous discussion group:
What about the impact on cognitive processing? Computers in Human Behavior, 21(6),
957-975.
Schrage, M. (1990). Shared minds: the technologies of collaborations. New York: Random
House.
Shin, M.H (1998). Effects of self-directed learning environment on achievement and
motivation, Korea Journal of Educational Technology, 14(3), 177-204.
Slotter, E. B. (2010). Using wiki contribution to induce collaborative learning in a psychology
course. International Journal of Technology in Teaching and Learning, 6(1), 33-42.
Swan, K. (2002). Building learning communities in online courses: The importance of
interaction. Education. Communication & Information, 2(2), 23-49.
Swan, K., Shen, J., & Hiltz, S. R. (2006). Assessment and collaboration in online learning.
Journal of Asynchronous Learning Networks, 10(1), 45-62.
Teoh, B., Ping, A., Cheng, A. Y., & Manoharan, K. (2010). Students Interaction in the Online
Learning Management Systems : A Comparative Study of Undergraduate and
Postgraduate Courses. The 24th AAOU Annual Conference, (54), 1–14.
Thanaporn, S. (2013). Synchronous and asynchronous collaboration technology use in
teamwork. Proceedings of the Nineteenth Americas Conference on Information Systems,
Chicago, Illinois, August 15-17.
Vosloo, S. (Ed.). (2012). Mobile learning. Paris: United Nations Educational, Scientific and
Cultural Organization (UNESCO).
Vygotsky, L. S. (1978). Mind in Society. Cambridge, MA: Harvard University Press.
Wagner, C. (2004). Wiki: A technology for conversational knowledge management and group
collaboration. Communication of the Association for Information System, 13, 265-289.
Watson, K. (2008). Supporting knowledge creation: Using wikis for group collaboration.
Education Center for Applied Research, (3), 1-13.
Wei, C., Maust, B., Barrick, J., Cuddihy, E., & Spyridakis, J. H. (2005). Wikis for supporting
distributed collaborative writing. Paper presented at the Society for Technical
Communication 52nd Annual Conference, 8-11 May 2005. Seattle.
Young, A. (2008). Structuring asynchronous discussion to incorporate learning principles in an
online class: One professor’s course analysis. MERLOT Journal of Online Learning and
Teaching, 4(2), 218-224.
| Prosiding Seminar Kebangsaan Majlis Dekan Pendidikan Universiti Awam, 7-8 November 2018 |
834 | MEDC 2018