Learning Styles and Asynchronous Learning:
Comparing the LASSI Model to Class Performance
Kenneth D. Loomis, Ph.D
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Department of Communication and Journalism
Hibbard Hall 157
University of Wisconsin - Eau Claire
Eau Claire, WI 54701
Phone: 715-836-2528
ABSTRACT
This study investigated the relationship between students' individual study and
learning styles with their performances in an online Research Methods
class. At the beginning of the semester the Learning and Study Strategies
Inventory (LASSI) measured each student's study and learning styles on ten
scales.
The students' LASSI scores were later correlated to their total class points,
and grades on exams, projects, and assignments. Five of the LASSI scales
had significant correlations with at least one aspect of the course
assessment. The strongest correlation was found between time management
skills and the final grade. The ability to effectively use study aids was
significant in the students' performance on the final grade, the final exam and
all activities outside exams (journal reports and chapter
assignments).
KEY WORDS
Distance learning, Drop out rates, Study strategies
I. BACKGROUND
The use of personal computers in teaching ranges from entire courses
conducted asynchronously (students participating in classroom
"discussions," completing assignments and taking exams at different
times and places on their computers) to courses where the computer content is
only used as a supplement to material delivered in the traditional classroom
lecture form. Universities, colleges and trade schools are rapidly developing
course material that is delivered to students in on-campus computer labs or on
the Internet at any location via modem or cable.
Most of the research on these asynchronous learning networks (ALNs) has
attempted to identify how much students learn from ALN courses compared to
traditional classroom contexts. Perhaps one of the broadest efforts at
investigating asynchronous learning was reported by Arvan, Ory, Bullock,
Burnaska and Hanson [1]. In that study, the University of
Illinois at Urbana-Champaign's SCALE Efficiency Projects utilized computer-based
instruction in seven different subject areas to make preliminary time and cost
and student performance analyses. The authors found that student
performance was comparable to the traditional classroom teaching environment
with potential cost savings through time.
Bond [2] compared student performance in a psychology class
delivered via CD-ROM with another group that previously had taken the same class
in the traditional manner. The CD program relied on audio lecture tracks
mixed with numerous visual components to deliver the material. Bond
compared the performance of the two groups of students (total n = 155) on three
multiple-choice tests. No real difference was found in the performance of
students who took the course on CD in 1997 from those who completed the
coursework in the traditional way during 1995.
Schutte [3] randomly divided a Social Statistics class of
thirty-three students into two sections; one section took the course in the
traditional classroom setting, the other section took the course on the
Internet. The traditional section met in person fourteen times while the
internet section met only twice after the first two weeks. The internet section
scored significantly higher (an average of 20%) than the traditional section on
the two course exams.
Sherman [4] incorporated asynchronous learning components into
an advanced Social Psychology course of ten students. The students reacted
positively to the ALN components because their work was shared with others, and
they likely experienced active (as opposed to passive) learning processes.
However, on the course evaluation some of Sherman's students expressed
dissatisfaction with the amount of time spent on learning and mastering the
technical aspects of accessing Web based information. Wegner, Holloway and
Garton [5] compared students' perceptions of their experiences
in a course taught to one group on-line (n=14), and to another group in the
traditional classroom model (n=17). Students were allowed to self-select
into either section. The groups primarily consisted of part-time Masters
degree students working on their principal certifications. The researchers
found no significant difference in student performance on the final exam.
However, the on-line students tended to express more positive feelings about the
course.
With use of a post-course questionnaire, Hiltz [6] analyzed
student satisfaction with the technical aspects of accessing and processing
course material delivered on an ALN, and found--over a two year period--student
satisfaction and course performance were comparable to the traditional classroom
courses (n=529). Ory, Bullock and Burnaska [7] discovered
that gender played no significant role in ALN students' performance and
satisfaction. With the use of post-course questionnaires, continuous monitoring
of virtual class discussions and group interviews, the researchers observed
females tended to use their computers more to communicate with the instructor
and other students, while males more often accessed the World Wide Web.
This study involved 2,151 students in twenty-three courses over two
semesters.
II. THE STUDY
The LASSI Measurement
Little, if any, research to this point has been conducted on student learning
styles in relation to asynchronous learning networks. We know individuals
process information in varied ways. This study was designed to ascertain
if students' learning styles influenced their performance in a Research Methods
class taught asynchronously on Lotus Notes Learning Space software. In
order to understand each student's learning style, every student in the class
was administered the Learning and Study Strategies Inventory (LASSI) at the
beginning of the semester.
The LASSI [8] was designed in 1987, after nine years of
development at the University of Texas at Austin, as a means to measure
students' study and learning strategies and methods. The tool consists of
ten scales, each measuring a different learning component. The ten scales
are:
- Attitude - the student's interest and motivation to succeed in college;
willingness to perform the tasks necessary for academic success (Alpha .72).
- Motivation - the degree to which the student accepts the responsibility
for performing those tasks by utilizing self-discipline and hard work
(Alpha .81).
- Time Management - the extent to which the student creates and uses
schedules to manage effectively his or her responsibilities (Alpha .86).
- Anxiety - the degree of anxiety the student feels when approaching
academic tasks (Alpha .81).
- Concentration - the ability of the student to focus his or her attention,
and avoid distractions, while working on school-related tasks like studying
(Alpha .84).
- Information Processing - the ability to process ideas by mentally
elaborating on them and organizing them in meaningful ways (Alpha .83).
- Selecting Main Ideas - the magnitude of the student's ability to ferret
out the important information in a learning situation (Alpha .74).
- Study Aids - the student's ability to use or develop study aids that help
the learning process (Alpha .68).
- Self Testing - the student's awareness of the importance of self-testing
and reviewing when learning material; and use of those practices (Alpha
.75).
- Test Strategies - the measurement of the student's ability to prepare
effectively for an exam and to reason through a question when answering it
(Alpha .83).
III. METHOD
During the 1999 Spring semester the university's Communication and Journalism
Department offered an online section of the department's Research Methods class,
which would be taught asynchronously with Lotus Notes Learning Space. The
Learning Space software contains four main folders within which the course
materials are presented: 1) Schedule holds the course syllabus, a due date
calendar of assignments, readings and exams; 2) Courseroom contains lecture
notes, directions on where to go for further readings, a classroom discussion
bulletin board and other content oriented material such as directions on how to
complete assignments and projects; 3) Media Center has the recorded audio and
video components of the course; and 4) Profiles contains demographic and
personal interest information of each student.
The course was designed to present the identical information provided in the
traditional classroom sections of Research Methods. Each chapter, or section, of
the course consisted of reading assignments posted in the Schedule folder,
written lecture notes provided in the Courseroom folder, and a recorded audio
lecture by the instructor in the Media Center. Each audio lecture was ten
to twenty minutes in length. Typically, students would listen to the audio
lecture while reviewing the provided written lecture notes. When graded
assignments were given, the audio lecture would explain the assignment. A
written description of the assignment--similar to something that would be handed
out in class--was available in the Courseroom folder. When students had
questions, they would contact the professor via the bulletin board in the
Courseroom, by e-mail, by telephone or by visiting in person during the
professor's office hours.
The first three class sessions were held in a campus computer lab to orient the
students to the software and to course procedures. The midterm and final exams
were administered in the traditional in-person classroom mode, as were several
class sessions reserved for the students to present their final projects. All
course lectures, assignments and discussions took place on line. For the
course's final project the class was divided into six groups. Each group was
given the assignment of designing and administering a small pilot study for one
of several research questions provided by the instructor.
During the third in-person class session at the beginning of the semester the
students were administered the LASSI. During the final class session of
the semester, before the final exam was handed out, the students completed a
short questionnaire about their perceptions of the course--what they liked and
did not like, what went well and what did not go well. One student
volunteered to collect these questionnaires and keep them until the week after
grades were posted and to then return them to the instructor. After the
semester was finished, and final grades posted, the instructor tabulated the
results of the LASSI and the final in-class questionnaire.
Twenty-eight students began the semester in the class, twelve males and sixteen
females. All were majors in one of the Communication and Journalism
sequences. Eight students were Seniors, fifteen were Juniors, four were
Sophomores, and one was a Freshman. Five students (four males and one
female) dropped the course before, or immediately after, the midterm exam.
IV. RESULTS
The students' answers on each of the LASSI scales were correlated with their
performance on exams, the final class group project, four chapter assignments,
and two journal article reports. The relationship between these variables is
shown in Table 1. Significant associations were evident between student
performance and five of the LASSI Scales: Attitude, Time Management,
Concentration, Selecting Main Ideas, and Study Aids.
As indicated in Table 1, Attitude was a predictor for whether a student dropped
the class before the end of the semester (F = 2.857, p = .029). Because
the Attitude scale measures students' perceptions of how valuable and relevant
college is to their futures, it is conceivable those who scored lower on this
scale had less patience with learning and mastering a new learning tool because
they were unable to connect the learning experience to their lives after
college.
As one might anticipate, Time Management was a very strong predictor of one's
overall performance in this class. Its correlation to Total Class Points
was the strongest of all (F = 9.443, p = .005). Students who reported a
weakness in managing their schedules received a lower final grade than those who
reported good time management skills on the LASSI. It is perhaps self
evident that the more structured daily class schedule of the traditional
classroom, where students know they must physically attend each class on given
days and times, supports those students who do not possess the skills of
designing their own daily plans. In this class, as with most asynchronous
learning networks, exams and assignment due dates were clearly
established. However, the supposed benefit of ALNs is that students have
the freedom to learn the material on their own time and are not limited by
regularly having to be at a certain place at a given hour to access the
material. The drawback, of course, is that if not given rigid attendance
requirements some students do not have the skills to discipline themselves to
adequately learn and study in a timely manner. The dilemma apparently was
present for some of the students in this class.
| |
Dropped
Class |
Journal
Reports |
Chapter Assmts. |
Final
Project |
| |
F
|
df
|
F |
df |
F |
df |
F |
df |
| Attitude 51st percentile |
2.857* |
12 |
1.107 |
10 |
2.404 |
10 |
.258 |
10 |
| Motivation 38th percentile |
.832 |
14 |
.408 |
13 |
1.284 |
13 |
.656 |
13 |
| Time Mgmt. 48th percentile |
.616 |
16 |
1.612 |
15 |
.702 |
15 |
.360 |
15 |
|
Anxiety 50th percentile |
.560 |
15 |
1.791 |
15 |
.614 |
15 |
1.791 |
15 |
|
Concentration 51st percentile |
1.791 |
14 |
1.791 |
12 |
1.069 |
12 |
1.791 |
12 |
| Inf. Process. 46th percentile |
.992 |
15 |
1.791 |
15 |
1.791 |
15 |
.946 |
15 |
| Sel. Main Ideas 65th percentile |
3.601** |
9 |
1.791 |
7 |
.314 |
7 |
1.033 |
7 |
| Study Aids 46th percentile |
1.791 |
16 |
1.791 |
13 |
2.487 |
13 |
1.791 |
13 |
|
Self Testing 34th percentile |
.484 |
13 |
1.090 |
13 |
1.791 |
13 |
.491 |
13 |
| Test Strategies 51st percentile |
1.317 |
12 |
1.417 |
10 |
.392 |
10 |
.438 |
10 |
|
Total
Non-Exam Points |
Midterm
Exam |
Final
Exam |
Total
Class Points |
|
F
|
df
|
F |
df |
F |
df |
F |
df |
| Attitude 51st percentile |
.411 |
10 |
1.832 |
11 |
.837 |
11 |
.880 |
11 |
| Motivation 38th percentile |
.693 |
13 |
1.658 |
14 |
1.581 |
14 |
1.189 |
14 |
| Time Mgmt. 48th percentile |
.822 |
15 |
.922 |
16 |
2.458 |
16 |
9.443* * |
16 |
|
Anxiety 50th percentile |
.706 |
15 |
1.791 |
15 |
1.791 |
15 |
.584 |
15 |
|
Concentration 51st percentile |
3.112* |
12 |
1.050 |
12 |
.634 |
12 |
1.791 |
12 |
| Inf. Process. 46th percentile |
.942 |
15 |
1.098 |
15 |
.750 |
15 |
1.791 |
15 |
| Sel. Main Ideas 65th percentile |
.714 |
7 |
.706 |
8 |
.728 |
8 |
.497 |
8 |
| Study Aids 46th percentile |
4.392* |
13 |
1.791 |
14 |
3.839* |
14 |
4.120* |
14 |
|
Self Testing 34th percentile |
.903 |
13 |
.807 |
13 |
1.791 |
13 |
.906 |
13 |
| Test Strategies 51st percentile |
.580 |
10 |
1.657 |
10 |
.633 |
10 |
.576 |
10 |
* Statistically significant at alpha = .05
** Statistically significant at alpha = .01
Table 1. Relationship Between Student Performance and LASSI Scales One Way ANOVA.
The LASSI Concentration scale is designed to measure students'
ability to focus attention, and maintain that attention, on academic
tasks. Students who do not report good concentration skills are likely to
be easily distracted by competing thoughts, or by other events, while studying.
Perhaps one of the more intriguing results was the relationship between the
Concentration scale and the Total Non-Exam points. While Table 1 does not
show strong correlations between Concentration and the individual non-exam
elements of the course (journal reports, chapter assignments, and the final
project), the combination of those three elements (Total Non-Exam Points) does
show a connection (F = 3.112, p = .041). Perhaps students who did not
report strong concentration skills on the LASSI had marginally lower
performances on each non-exam assignment. The difference shows up as
significant when adding together the performances of all those
assignments. Again, because of the asynchronous nature of this course, it
is likely some students did not focus their undivided attention on the
assignments as they might have in a more controlled classroom environment.
It is possible the distractions of computer labs or dormitory rooms compromised
some students' abilities to focus on the material.
The Selecting Main Ideas scale measures a student's ability to pick out the
important and relevant information of a learning situation. The students
who dropped the class tended to score lower on this scale than did the students
who remained (F = 3.601, p = .010). One can imagine that, when dealing
with a potentially confusing new learning environment such as internet based
computer software, some students might get lost in the details of accessing all
of the course materials as well as determining what was important once they did
access them. Without regular in-class cues from the instructor about
important information, students who did not possess this type of study skill
might have felt frustration with the course.
The LASSI scale with the greatest number of performance correlations was Study
Aids. The Study Aids scale was a predictor for Total Non-Exam Points (F =
4.392, p = .016), Final Exam points (F = 3.839, p = .031), and Total Class
Points (F = 4.120, p = .025). The LASSI Study Aids scale measures one's
ability to create and/or utilize existing study aids in learning a
subject. Study aids in the traditional context may be such things as
emboldened or colored text, underlined text, summary statements, charts and
graphs, etc. Students in this class who did not report good study aids
skills on the LASSI did not do as well in the course. Students must be
proficient in flipping back and forth between several different folders on the
course's web page, and then relating all this material to assigned
readings. When a student has a question during this process, he or she
must feel comfortable in joining a bulletin board discussion group or e-mailing
the professor with a question. Therefore an individual who does not
recognize the importance of simple emboldened textbook text is likely to have
difficulty utilizing and understanding the multilayered design of an online
internet course.
IV. DISCUSSION
The study skills each student brought to this class was an important
determinant of his or her success in the course. One of the benefits of
the traditional classroom setting is that the more rigid structure (regular
class meetings and frequent teacher reinforcement of important information)
helps support some students with mediocre learning and studying skills. In
the traditional classroom much of the pressure in the learning environment is on
the teacher and the system itself. Oftentimes instructors in the
traditional classroom can detect when an individual does not understand or is
unprepared for class, and can respond accordingly. Students in an asynchronous
learning network do not have the benefit of such support. All of the
course information is presented and available; but it is almost entirely up to
the student to access and process it.
For many students with good time management and study aids skills the
flexibility of this ALN actually improved the learning experience as evidenced
by these written student evaluation comments:
The amount of learning increased because I was able to go back and listen to
the lectures over and over again, whereas in a traditional classroom, the
lectures are perishable. My motivation increased because I knew that I
had to be disciplined and motivated to get a good grade in the course.
I usually stay on top of my schoolwork and was no different with this
course. I made sure to keep up with assignments week by week and didn't
let myself fall behind, even though there was no monitoring of my progress (as
by professor in classroom).
I really liked the flexibility that the Learning Space offered. I would
never let myself get too far behind, then if I knew I was going to have other
things coming up in other courses, I had the option of working a little ahead
of schedule. I really liked the flexibility.
"Even though I didn't get to know the other students very well, I didn't
really care. The way the course was offered worked well for me in terms of my
schedule time constraints and learning style."
However, other student comments focused on the dangers of poor time management
and study skills:
"I didn't feel that I learned as much since I could easily
procrastinate."
"Because I could do it on my own time I put it off and
procrastinated. But when I did learn it I was motivated because it is
interesting and fun material."
"Without going to class my motivation completely decreased. Because
we didn't meet on a regular basis the class kind of slipped out of my
thoughts."
"Since I had to learn everything on my own I often found myself putting
the class off in favor of other classes."
"There was not enough structure for me."
"It was a good experience, however this method of learning does not
fit my personality. (I'm a procrastinator.)"
"For me there was too much freedom and my grade reflected on that.
I think I would of done better in a regular class."
V. CONCLUSIONS
From these comments and the preceding analysis it is apparent students'
learning and study styles played a crucial role in their success in this course;
perhaps even a bigger role than their learning styles play in the traditional
classroom. If these connections hold true in further research, greater
attention will need to be focused on individual student learning styles before
an asynchronous learning course commences. Departments and schools that have
made a significant commitment to distance learning may find it beneficial to
provide students with a test of their learning styles upon admittance to the
program. In that way, knowing their own strengths and weaknesses, students
could better decide for themselves if an ALN would be a good experience.
However, it is also probable through time, students--intuitively knowing their
own tendencies--would self select themselves in or out of such courses.
High drop-out rates are a common problem with on-line courses. Carr's study [9]
identified two study skills areas that may influence drop-out rates in on-line
courses: attitude and the ability to identify main ideas. Students who do
not fully appreciate the process of obtaining a degree in higher education may
be at an increased risk of not completing the coursework in this learning
environment. Likewise, students unable on their own to effectively ferret
out the most important course information may not survive the ALN experience.
While this project was one of the first to link learning study styles to
asynchronous learning, further research will add more understanding. If
this course's experience proves valid on a larger scale, time management and
study aids skills will need to be emphasized before an ALN class begins.
Students will need to understand the importance of skills, and will need to
honestly evaluate their own abilities in those areas. Instructors will
need to emphasize the importance of study skills at the outset, and will need to
closely monitor throughout the semester the progress of each student. If a
student is late with, or does a poor job on, an assignment the instructor will
need to immediately initiate communication with the student to determine if poor
study skills is the culprit.
More research with conceptual models such as the LASSI is needed to validate all
these findings and to gain greater insights into the role of learning and study
styles in an asynchronous environment. It will also be meaningful to
investigate relationships with other types of learning models, such as the
Price, Dunn and Dunn [10] model which measures environmental
variables (noise, light, temperature) along with other emotional, sociological,
physical, and psychological stimuli. The traditional classroom environment
is usually controlled; temperature, lighting, noise, and other stimuli are the
same for each student. Of course, in virtual classrooms external learning
environments widely vary. The Price, Dunn and Dunn measures may help in
identifying external environments and preferences that are conducive to success
away from the traditional classroom conditions.
One improvement that will be made in this Research Methods section is the course
grading scale will be expanded. More points will be added through the
addition of regular weekly assignments. In this way, students will be
required to access the course more often and will be less likely to "let
the course slide." This extra work was actually requested by two
students' written comments: "Overall I enjoyed this class, but I
think next time to improve there could be more lectures/assignments to motivate
students to learn the material." "Put assignments corresponding with
each lecture to motivate students to listen to each one and to stay on top of
their work." So, where traditionally this course had two exams and several
major projects and/or assignments, numerous small scale assignments will be
added to keep students "tuning in."
The instructor will also continue to work on improving the appearance of the web
page through more simplified directions and instructions, and through more
interesting PowerPoint applications. These changes might help students who
are not accustomed to profitably using study aids.
The growing use of personal computers in education provides many new
opportunities. However, as we move forward in the adoption of this new use
of technology it will be beneficial to remember that people learn in a multitude
of ways. Identifying the intersections between these different learning
and study styles, and the processes of learning in an asynchronous environment
will help to make the transition easier.
REFERENCES
- Arvan, L., Ory, J.C., Bullock, C.D., Burnaska, K.K.,
and Hanson, M., The SCALE Efficiency Projects, Journal of
Asynchronous Learning Networks, 2 (2), 1998.
- Bond, N.W., A Multimedia Program
in Associative Learning, Teaching of Psychology, 25 (4), 300-302, 1998.
- Schutte, J.G., Virtual Teaching in
Higher Education: The New Intellectual Superhighway or Just Another
Traffic Jam?, California State University, Northridge, 1996. www.csun.edu/sociology/virexp.htm.
- Sherman, R.C., Using the World Wide
Web to Teach Everyday Applications of Social Psychology, Teaching of
Psychology, 25(3), 212-216, 1998.
- Wegner, S.B., Holloway, K.C., and Garton, E.M., The
Effects of Internet-based Instruction on Student Learning, Journal of
Asynchronous Learning Networks, 3 (2), 1999.
- Hiltz, S.R., Impacts of College-Level Courses Via
Asynchronous Learning Networks: Some Preliminary Results, Journal of
Asynchronous Learning Networks, 2, 1997.
- Ory, J.C., Bullock, C.D., and Burnaska, K.K., Gender
Similarity in the Use of and Attitudes About ALN in a University Setting,
Journal of Asynchronous Learning Networks, 1 (1), 1997.
- Weinstein, C.E., LASSI User's Manual,
Clearwater, Florida, H and H Publishing Company, Inc., 1987.
- Carr, S., As Distance Education Comes
of Age, The Challenge is in Keeping the Students, The Chronicle of Higher
Education, Feb. 7, 2000.
- Price, G.E., Dunn, R., and Dunn, K., PEPS
(Productivity Environmental Preference Survey) Manual, Rev. ed., Lawrence,
Kansas Price Systems, 1982.
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