STUDY OF THE EFFECTIVENESS OF WEB-BASED TUTORIALS
AND THE RELATIONSHIP BETWEEN SELF REGULATED
LEARNING AND LEARNING PERFORMANCE
USING WEB-BASED TUTORIALS
Swati Nere and Eugenia Fernandez
Purdue School of Engineering & Technology, Indiana University Purdue University Indianapolis
799 W. Michigan St., ET 301, Indianapolis, IN, U.S.A.
Keywords: Self-efficacy for Self regulated Learning, Web-based Tutorials, Learning Styles.
Abstract: This study was designed to examine the effectiveness of Web Based Tutorials (WBTs) and the correlation
between students’ self efficacy score for self regulated learning and their learning performance using WBTs.
Participants were graduate students (N = 14) enrolled in a statistics course during a single semester. The
results of this study showed that WBTs were effective for learning statistics concepts. However, there was
no correlation between students’ self efficacy score for self regulated learning and their learning
performance using WBTs. Additional investigation showed that the classroom instruction mode was more
effective than the WBT instruction.
1 INTRODUCTION
Distance education is a rapidly growing medium that
is used in almost every field for training and
education. This is due to its basic advantages,
namely convenience, learning at one’s own pace,
and around-the-clock online accessibility. Web-
based tutorials (WBTs) have become an important
and integral part of distance education (Davidson-
Shivers & Rasmussen, 2006).
Research has shown that effective use of WBT
and multimedia can increase student learning
(Forsyth & Archer, 1997; Kazmerski & Blasko,
1999; Liu, 2004; Mackey & Jinwon, 2008) and help
students to understand complex concepts that
sometimes are difficult to understand in a face-to-
face class setting due to time limitations. Thus, it is
clear that computer-based demonstrations and
tutorials may prove beneficial to students’ learning
in a course.
Students’ academic success is also related to
their use of self-regulation strategies. In educational
literature, it is often referred to as Self-Efficacy for
Self-Regulated Learning (SESRL, henceforth
referred as SRL). It is a relatively new area in social
cognitive learning theory. SRL is a comprehensive
construct that focuses on students’ performance and
achievement of learning processes in educational
settings by focusing on how students motivate, plan,
monitor, and evaluate personal progress
(Zimmerman, 1989).
This research investigates the effectiveness of
WBTs and the relationship between students’ self-
regulation strategies and their learning through
WBTs.
2 PROBLEM STATEMENT
In face-to-face class instruction, it can become
difficult for students to learn complex concepts due
to time limitations. Statistics is an example of a
course that involves learning many complex
concepts and procedures. In such cases, WBTs can
be used as an supplemental tool, providing out-of-
classroom instruction to enhance conceptual
learning.
Despite the many advantages web-based tutorials
offer, they can pose problems associated with a lack
of SRL skills. SRL skills include goal setting, self-
monitoring, self evaluation, use of learning
strategies, help seeking, and time planning and
19
Nere S. and Fernandez E. (2010).
STUDY OF THE EFFECTIVENESS OF WEB-BASED TUTORIALS AND THE RELATIONSHIP BETWEEN SELF REGULATED LEARNING AND
LEARNING PERFORMANCE USING WEB-BASED TUTORIALS.
In Proceedings of the 2nd International Conference on Computer Supported Education, pages 19-26
DOI: 10.5220/0002774800190026
Copyright
c
SciTePress
management (Zimmerman, 2008). Learning through
WBTs is student-centered in that students must
practice self-regulatory skills to accomplish their
learning goals (Dabbagh & Kitsantas, 2003). It is
expected that experienced students regulate their
own learning skilfully. However, many often stick to
high school or grade school learning strategies that
prove to be insufficient to the college environment
(Hofer, Yu, & Pintrinch, 1998).
Secondly, although online classes and web-based
tutorials are part of distance education, they have
some differences. Online classes make use of
synchronous/asynchronous communication tools like
chat, email, and forums. On the other hand, web-
based tutorials typically involve one shot exposure,
require shorter learning span, and don’t have
facilities where students can participate in
synchronous/asynchronous communication.
Lastly, while there is an ample research on SRL,
less research (Beile & Boote, 2004) has been done in
relation to WBTs. In view of this, research is
necessary to determine if WBTs are effective in
students’ understanding of higher level concepts and
whether students’ performance in WBT learning is
related to their self-regulation strategies.
The research on the effectiveness of WBTs
shows that students are satisfied with learning
through WBTs (Aberson, Berger, Emerson, &
Romero, 1997, 2007; Bliwise, 2005; Buzzell,
Chamberlain, & Pintauro, 2002; Daeid, 2001;
Donovan & Nakhleh, 2007; Michel, 2001; Nedic &
Machotka, 2006; Wilson & Harris, 2002;). Belawati
(2005) found that students’ participation in online
tutorials improves course completion rates and
achievement. In view of this, the outcome of this
study will be helpful in the design of more WBTs for
conceptual learning of the difficult topics in
statistics. With the knowledge construction provided
through WBTs, classroom time can effectively be
used on the application of the concepts.
Student self-efficacy for self-regulated learning
is becoming an interesting area of research in
educational literature. Zimmerman (1994) has
shown that self-regulation is a reliable predictor of
academic performance. According to Zimmerman
(1990), self-regulated learning theories of academic
achievement are distinct from other means of
learning due to two main reasons, namely how
students select, organize, or create beneficial
learning environments for themselves, and how they
plan and control the form and amount of their own
instructions. Zimmerman (1990) has concluded in
his overview study of SRL and academic
achievement that systematic efforts can be launched
to teach self-regulation to students who approach
learning passively. According to Zimmerman
(1990), “A self-regulated learning perspective on
students’ learning and achievement is not only
distinctive, but it has profound implications for the
way teachers should interact with students and the
manner in which schools should be organized (p.4).
Accordingly, it is important to know the relationship
between SRL and students’ learning performance
using WBTs.
The main purpose of this study is to determine
the effectiveness of web-based tutorials for
understanding statistical concepts and examine the
relationship between students’ SRL and their
learning performance using WBTs. More
specifically, the objective of the study is to seek
answers to the following research questions:
1. Is a web-based tutorial effective in helping
students understand difficult concepts in
statistics?
2. Is there any difference between students’
learning using WBT instruction and classroom
instruction mode?
3. Is there any relationship between students’ SRL
and their WBT learning performance?
4. Are students’ SRL independent of their learning
style?
5. How satisfied are students with learning using
WBTs?
By participating in this study, students will
increase their awareness of their SRL strategies.
Results of the study will provide insight to both
students and teachers on how to improve and
stimulate SRL strategies respectively.
3 LITERATURE REVIEW
A growing body of research exists on the
effectiveness of learning and teaching through
WBTs. Most of these studies compare online and
face-to-face learning approaches. Some of this
research shows that WBTs are more effective than
classroom instruction while others show that WBTs
are as effective as classroom instruction. For
example, researchers (Aivazids, Lazaridou, &
Hellden, 2006; Day, Raven, Newman, 1998; Melara,
1996) found that web-based tutorials can accelerate
the learning process with the same level of
achievement as a classroom lecture. O’Neal, Jones,
Miller, Campbell, and Pierce (2007) showed that
web based instruction is as effective as traditional
teaching for disseminating special education course
content to pre-service teachers. Fernandez (1999)
CSEDU 2010 - 2nd International Conference on Computer Supported Education
20
found no significant difference in learning through a
classroom lecture and using a web-based tutorial.
Similar results were found in a study by Nichols,
Shaffer, and Shockey (2003) which compared
student learning through an online tutorial to a
traditional lecture and also found that students were
satisfied with online instructions. Belawati (2005)
found that students’ participation in online tutorials
improves course completion rates and achievement.
Sweeney, O’Donoghue and Whitehead (2004)
suggested that a balance is needed between face-to-
face and web-based tutorial learning approaches.
The effectiveness of WBTs has been investigated
in almost every subject, for example, chemistry
(Donovan & Nakhleh , 2007), engineering (Nedic &
Machotka, 2006), library sciences (Michel, 2001),
forensic science (Daeid, 2001), medical science
(Buzzell, Chamberlain, & Pintauro, 2002), and
psychology (Wilson & Harris, 2002). All of these
studies found that WBTs are as effective as
classroom instruction.
Aberson, Berger, Emerson, and Romero (1997,
2007), and Bliwise (2005) explored the effectiveness
of WBTs for difficult to understand statistics
concepts. All these researchers found that students
were more satisfied with WBT learning and hence
attempts were made to improve the learning through
the design of more WBTs.
Recent research related to SRL shows that SRL
is one of the reliable factors that can be linked to
personal and academic achievement of students.
Zimmerman and Martinez-Pons (1988) developed a
structured interview procedure that involved a
number of contexts or descriptions of instructional
problems that students often encounter. In analysis,
the researchers identified 14 self-regulated learning
strategies, namely self evaluation, organization and
transformation, goal setting and planning,
information seeking, record keeping, self-
monitoring, environmental structuring, giving self-
consequences, rehearsing and memorizing, seeking
social assistance, and reviewing (notes, books or
tests). After studying the responses of 40 students
from advanced academic track and 40 students from
lower academic track, the researchers found that
students’ use of self-regulated learning strategies
was strongly associated with their superior academic
functioning.
SRL has been validated by Usher and Pajares
(2006) in which Bandura’s Children Self-Efficacy
Scale was assessed on a sample of 3,760 students
from grade 4 to 11. The scale formed a one-
dimensional construct and demonstrated an
equivalent structure for boys and for girls, and for
elementary, middle, and high school students. Thus,
the scale provided a sound measure with which
researchers can continue to assess students’ beliefs
about their self-regulatory capabilities.
Although, there is ample research on self-
efficacy and SESRL, less research has been done in
relation with WBTs (Beile & Boote, 2004). Dabbagh
and Kitsantas (2004) point out that Web-based
learning approaches are students-centered and web-
based learning tools like emails, forums and chat can
support students’ development of self-regulatory
skills that are essential for success in student-
centered web-based learning environments.
The area of learning styles (the way a person
takes in, understands, expresses and remembers
information) has also been largely explored by
educational researchers. For example, Marrison and
Frick (1994) showed that academic achievement is
affected by one’s learning style. Diaz and Cartnal
(1999) found that online students were more
independent and on-campus students were more
dependent in their styles as learners.
Mupinga,
Nora, and Yaw (2006) suggest that the design of
online learning activities should strive to
accommodate multiple learning styles. Garland and
Martin (2005) examined the differences between the
learning styles of 168 students in online and
traditional face to face courses and found a
significant difference: “the learning style of the
online student as a group was assimilating, while the
learning style of the face-to-face student as a group
was diverging” (p. 73). They also found a
significant relationship between male students with
an Abstract Conceptualization learning mode and
student engagement. The authors concluded that the
learning style and gender of all students must be
considered when designing online courses. In view
of this, the present paper also investigates the
relationship between students’ SRL and their
learning style.
4 ASSUMPTIONS &
DELIMITATIONS
This study assumed that all participants were able to
navigate through course management systems, and a
Windows-based operating system, and had a basic
knowledge of how to navigate a WBT.
The scope of this study was limited to the
learning of four statistics concepts taught in a single
graduate class, namely z test for single group, chi-
square, independent samples t-test, and correlated
samples t-test.
STUDY OF THE EFFECTIVENESS OF WEB-BASED TUTORIALS AND THE RELATIONSHIP BETWEEN SELF
REGULATED LEARNING AND LEARNING PERFORMANCE USING WEB-BASED TUTORIALS
21
5 METHODOLOGY
The participants in this study consisted of graduate
students enrolled in a semester long graduate
research methods and statistics course at a large
Midwestern public university. Students were
informed of the purpose of the study and completed
an informed consent agreement.
This study used a single group pre-test post-test
repeated measures quasi-experimental design to
(1) evaluate the effectiveness of web-based tutorials
for learning statistical concepts using classroom
teaching as a control group, and (2) to investigate the
relationship between students’ learning performance
using WBT and their SRL.
Two pairs of related statistical concepts were
selected – z test/Chi square goodness of fit test and
independent-groups/correlated-groups t tests. WBTs
were designed for two of these statistical concepts:
z-test for single group and t- test for independent
groups, referred to as WBT-1 and WBT-2
respectively. The two WBTs can be viewed at
https://dnet.cit.iupui.edu/wbt1/index.htm and
https://dnet.cit.iupui.edu/wbt2/index.htm
respectively. The other two concepts (Chi-square
and t-test for correlated groups) were taught using
classroom instruction. These two topics were used as
a control group for the related experimental
components.
Gagné and Briggs (1979) have emphasized that
in order to implement an effective learning process,
it is important to evaluate students’ understanding of
the concepts as well as to get the feedback from
students during evaluation. In view of these
suggestions, a pre-test was administered prior to the
start of each concept mentioned above. Due to the
timing of the concepts in the course, the pre-tests for
the z test and Chi square were combined as were the
pre-tests for the independent-groups and correlated-
groups t tests. After each concept’s learning
exposure, a post-test was administered. A
difference score (post-test – pre-test) was then
computed for each concept. Figure 1 provides a
graphical representation of this procedure. Table 1
shows how each change score was used.
Riel and Harasim (1994) have suggested that
user feedback is one way of examining if the
learning environment is successful in meeting
learning outcomes. In view of this, a tutorial
satisfaction questionnaire was used at the end of the
two post-tests for topics taught using WBTs.
Student’s learning style was determined by
administering one of the most widely used online
questionnaires, Keirsey Temperament Sorter II
Figure 1: Graphical representation of the methodology.
Table 1: Use of change scores.
Measure Used to Evaluate
Difference 1
Effectiveness of WBT on
z test
Difference 2
Effectiveness of WBT on
independent-groups t test
Difference 3
Effectiveness of
classroom instruction on
Chi square goodness of fit
Difference 4
Effectiveness of
classroom instruction on
correlated-groups t test
Difference 1 –
Difference 3 and
Difference 2 –
Difference 4
Effectiveness of WBT vs.
classroom instruction
(Keirsey, n.d). The learning style, demographic
survey, and students’ SRL scale were administered
prior to the start of any experimental components.
The students’ self regulation strategies were
evaluated using one subscale from the Children’s
Multidimensional Self-Efficacy Scales, namely self-
CSEDU 2010 - 2nd International Conference on Computer Supported Education
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efficacy for self- regulated learning. The scale
included 11 items that measures students’ perceived
capability to use a variety of self-regulated learning
strategies. Students’ responses were recorded
according to a 7-point scale ranging from not well at
all for a rating of 0, not too well for 3, pretty well for
5, and very well for 7. Students’ SRL was calculated
by adding the score of 11 items for each students and
then taking an average of that score, as has been
done in other studies (Carroll & Garavalia, 2002;
Inzlicht, McKay, & Aronson, 2006). As discussed
in the literature review, the SRL scale has been
validated by Usher and Pajares (2006).
6 RESULTS
Of the 19 students enrolled in the course, 14 (57%
male, 43% female) usable responses were obtained.
Students who participated in the study but didn’t
complete both pairs of pre-tests and post tests were
excluded from the data analysis. The majority of the
students (50%) were of age group 25-34 years old
followed by age group of 45 and over. 36% of the
participants were full time students while 64% were
part time students.
6.1 Hypothesis 1
Is a WBT effective in helping students understand
the concepts in statistics?
A paired-samples t test was calculated to
compare the mean pre-test score before the exposure
to learning through WBT-1 to the mean post-test
score after the WBT-1 learning. The mean on the
pre-test was 24% (sd =11.87), and the mean on the
post-test was 67% (sd = 23.60). A significant
increase from pre-test to post-test was found (t (8) =
5.768, p < .001).
A paired samples t test was calculated to
compare the mean pre-test score before the exposure
to the learning through WBT-2 to the mean post-test
score after the WBT-2 learning. The mean on the
pre-test was 10% (sd =20.69), and the mean on the
post-test was 65% (sd = 18.57). A significant
increase from pre-test to post-test was found (t (8) =
6.805, p < .001).
6.2 Hypothesis 2
Is there any difference between students’ change in
knowledge after WBT learning and classroom
learning?
A paired-samples t test was calculated to
compare the mean change in knowledge after
learning through WBT-1 to the mean change in
knowledge after classroom instruction on Chi
square. The mean change in knowledge after
learning through WBT-1 was 46% (sd =21.26), and
the mean change in knowledge after classroom
instruction was 77% (sd = 19.80). A significant
difference was found (t (7) = -3.037, p < .05).
Students learned more after classroom instruction
than using the WBT-1.
A paired-samples t test was calculated to
compare the mean of change in knowledge after
learning through WBT-2 to the mean change in
knowledge after classroom instruction. The mean
change in knowledge after learning through WBT-2
was 45% (sd =31.38), and the mean change in
knowledge after classroom instruction was 65% (sd
= 20.18). A significant difference was found (t (10)
= -2.541, p < .05). Students learned more after
classroom instruction than using the WBT-2.
6.3 Hypothesis 3
Is there any correlation between students’ SRL and
their WBT performance?
A Pearson correlation coefficient was calculated
for the relationship between students’ SRL and their
WBT-1 performance. A moderate correlation that
was not significant was found (r (7) = .441, p > .05).
Students’ SRL was not strongly related to their
WBT-1 performance.
A Pearson correlation coefficient was calculated
for the relationship between students’ SRL and their
WBT-2 performance. A moderate correlation that
was not significant was found (r (9) = .027, p > .05).
Students’ SRL was not strongly related to their
WBT-2 performance.
6.4 Hypothesis 4
Are students’ SRL independent of their learning
style?
Only 11 of the 14 students completed the Kiersey
Temperament Sorter, with 8 of the 11 falling into the
Guardian temperament. Because of this clustering,
an ANOVA comparing students’ SRL by
temperament type was not possible. For reporting
purposes the SRL scores were divided into three
categories: high (SRL > 4), medium (SRL =4) and
low (SRL < 4). Table 2 shows the cross tabulation
between SRL level and students’ Keirsey
temperament.
STUDY OF THE EFFECTIVENESS OF WEB-BASED TUTORIALS AND THE RELATIONSHIP BETWEEN SELF
REGULATED LEARNING AND LEARNING PERFORMANCE USING WEB-BASED TUTORIALS
23
Table 2: Count of SRL by Temperament.
Temperament
Guardian Rational Idealist Total
SRL
Med. 1 0 0 1
High 8 1 1 10
Total 9 1 1 11
6.5 WBT Satisfaction
How satisfied are students with their change in
knowledge using WBTs?
11 out of 14 participants responded to the
satisfaction questionnaire. 45% of the students were
‘somewhat satisfied’ with WBTs while 36% were
neutral about it. Two participants were dissatisfied
with the tutorial. Satisfied students liked the
content/information presented in the WBT while the
dissatisfied students reported lack of interactive
features and necessity of more illustrative examples.
A total of 60% of the respondents said they would be
‘likely’ to study similar tutorials. None of the
students reviewed any other resources on the topic
taught using WBT-1 and WBT-2.
7 LIMITATIONS
No web-tracking software was used so the time
spent studying the tutorial was not measured.
However, the students were asked in the feedback
questionnaire about how much time they spent
studying the tutorial. A survey method was used to
determine the students’ satisfaction about their
change in knowledge after learning through the web-
based tutorial. A major limitation of the survey
method is that it relies on a self-report method of
data collection. In addition, factors like poor
memory, intentional deception, or misunderstanding
of the question may all contribute to inaccuracies in
the data. Some of the responses for the tutorial
satisfaction questionnaire were inconsistent. The
pre-test and post-tests questions were not face
validated. The small sample size in this study is an
obstruction to the issue of generalizing the findings
to larger populations. And hence the results of this
study cannot be generalized.
8 CONCLUSIONS
The result for the first hypothesis, which
investigated the effectiveness of WBTs for
understanding statistics concepts, showed that there
was a significant increase in students’ change in
knowledge using WBT learning. This result is
consistent with the literature that shows WBTs are
just as effective a learning medium as classroom
instruction (Buzzell, Chamberlain, & Pintauro, 2002;
Daeid, 2001; Donovan & Nakhleh , 2007;
Fernandez, 1999; Michel, 2001; Nedic & Machotka,
2006; Wilson & Harris, 2002). More specifically, it
confirms that WBTs were effective for learning
statistics concepts, similar to studies by Aberson,
Berger, Emerson, and Romero (1997, 2007), and
Bliwise (2005). However, our results were
influenced by the uncontrollable confound of
students reading the textbook chapter before the
WBT exposure. 64% (7/11) and 67% (8/12) students
read/skimmed through the textbook chapter before
they studied WBT-1 and WBT-2 respectively.
The outcome of the second hypothesis, which
examined the learning differences between WBTs
classroom instruction, showed that the classroom
instruction was more effective than WBT
instruction. This is probably due to the fact that the
pair of topics taught through WBTs and classroom
instructions were comparable. In both situations, the
WBT topic was introduced first and then the related
topic was taught using classroom instruction. This
design might have prepared the students’ mindset
first through the WBT and repetition may have
helped them understand the second topic in the
classroom setting more easily. In view of this, future
studies should investigate the change in knowledge
by reversing this sequence. However, coupled with
the results of the first hypothesis, it is safe to say that
this research validates the use of WBTs as a
supplemental method of instruction. By moving
some of the instruction out of the classroom, it could
free classroom time for the practical applications of
those concepts.
The consequence of the correlation test between
SRL and WBT performance was interesting. In the
present study, the majority of the students were of
age 25-34 and above 45. Generally, this group is
considered as experienced students and hence
exhibited high SRL score. However, their WBT
performance didn’t indicate a proportional increase,
demonstrating no correlation between SRL and
WBT performance. This may be attributed to no
face validation of the test questions or possible
reluctance or lack of motivation to learn using WBT
as the participants were from an on-campus class.
Some students reported that they didn’t study the
tutorial (27% and 33% students did not study WBT-
1 and WBT-2 respectively), which may indicate
CSEDU 2010 - 2nd International Conference on Computer Supported Education
24
their lack of motivation to learn using WBT and
respond to related post-tests as compared to their
class work. In future replication of such study, due
consideration may be given to add students’ post-test
score to their final course grade in order to motivate
students so as to improve the response rate. Some
students reported that the WBTs lacked interactive
features. In view of this, in the future replication of
such a study, it would be helpful to determine what
interactive features are desirable and then design the
WBTs accordingly.
The sample size in the present study was small
and the participants were graduate students who
exhibited high SRL score. Undergraduate students
are more likely to stick to their high school learning
strategies which are not sufficient for the college
learning. It would be interesting to replicate this
study with undergraduate students enrolled in on
campus and online classes and give WBT learning
treatment to both groups.
Student satisfaction with the WBTs was mild due
to their desire for more interactive features and
illustrative examples. This speaks to the high level
of expectations on the part of the students for online
materials. Thus, this research has shown that WBTs
do have value and can be used as a supplement to
classroom teaching, but they should be designed to
include interaction.
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