Patterns of instructional technology use by faculty in marketing: an exploratory investigation.
Lipscomb, Thomas J. ; Totten, Jeffrey W. ; Tanner, John R. 等
ABSTRACT
The present study was undertaken in order to gain a preliminary
perspective on the use of technology in academic instruction in
Marketing in the United States. The sampling frame consisted of
professors and others interested in marketing. A questionnaire addressing usage of various types of classroom hardware, software, and
distance education activity, was modified from a previous study of
finance professors. A "call for participants" was posted on
the American Marketing Association's e-mail list service (ELMAR)
during the fall of 2003. Marketing faculty members were requested to
respond to the questionnaire through an Internet homepage, which was
accessible via a provided hotlink. Usable responses were received from
102 marketing faculty.
The results indicated that the process of adoption of technology
for marketing instruction in the United States is well underway. With
respect to hardware, it was found that more than 92% of the respondents employ front-orientation computer projection systems, and over half used
the systems in over eighty percent of the class meetings. Very high
usage rates were found for presentation and spreadsheet software. It was
also discovered that roughly one out of three respondents have taught
one or more courses by distance education.
Interesting variations were found among the respondents with
respect to implementation of technology as a function of gender and
years of teaching experience.
INTRODUCTION
Worldwide, colleges and universities are rapidly accelerating the
development of technology-based infrastructures in order to facilitate
the use of various forms of technology for instructional purposes.
Indeed, a recent survey conducted on behalf of the Campus Computing Project (2003) indicated that U.S. universities are rapidly adopting a
variety of technology--based options. As just one example, the results
of this survey indicated that 77.2% of participating institutions
reported the use of wireless LANS in 2003, as compared to 67.9 % in 2002
and 29.6 % in 2000. Correspondingly, the literature in Higher Education
is replete with reference to the adoption and use of various forms of
technology for educational purposes. Nowhere is this trend more apparent
than in Colleges of Business. At present, however, there appears to be
some difference of opinion concerning the implementation of
instructional technology in Higher Education in general and in business
curricula in particular. Whereas some authors wholeheartedly embrace the
use of technology for instructional purposes (e.g. Reeves, 1998), others
voice concern, suggesting that the educational benefits to the student
have yet to be adequately assessed and that faculty costs in time may
outweigh the benefits of learning new technologies for pedagogical purposes (e.g. Smith, 2001).
Educators in the field of marketing have not remained outside of
the debate taking place in higher education more broadly. Like their
peers in other fields, marketing faculty are moving toward greater and
greater reliance on "technology-enhanced" course instruction
(Evans, 2001; Ferrell and Ferrell, 2002). As is true elsewhere in higher
education, however, there is little empirical evidence assessing the
potential benefits of instructional technology to teach marketing
(Malhotra, 2002). Within the marketing education literature, it has been
proposed that discussions concerning the merits of implementing
instructional technology often suffer from a lack of consensus
concerning just what is meant by the term, "Instructional
Technology" (Peterson et al., 2002; Malhotra, 2002). Indeed, a
variety of specific technology-based techniques have been employed and
their relative efficacies discussed. A partial list of technologies
employed in marketing instruction includes presentation software such as
PowerPoint, faculty websites, e-mail, BlackBoard and WebCT, in classroom
and out of classroom use of the Internet, etc. Until there is agreement
concerning the meaning of the term "Instructional Technology,"
it will be difficult if not impossible to empirically assess the utility
and effectiveness of various methods often subsumed under this umbrella.
A definition proposed by Malhotra (2002) would appear to capture what
may be an emerging consensus within the field of marketing education:
"Instructional technology includes hardware and software, tools and
techniques that are used directly or indirectly in facilitating,
enhancing, and improving the effectiveness and efficiency of teaching,
learning, and practicing marketing knowledge"(p.1).
Since a variety of technologies are being employed in an attempt to
enhance marketing education and since the relative effectiveness of
these techniques may be expected to vary, it would be useful to discover
the extent to which these various technologies have penetrated the
marketing academy. Although there have been a number of small scale
studies assessing the extent of use of various technologies at specific
universities (see, for example, the April 2001 issue of the Journal of
Marketing Education that was devoted to technology and distance
learning), there has been little effort directed toward assessing the
extent of use by marketing faculty as a whole. A recent qualitative study by Peterson et al. (2002) is noteworthy. This study was based on
the response of 61 marketing faculty members to six open-ended questions
assessing the use of technology for marketing instruction. Among the
findings were that approximately two-thirds of the respondents indicated
use of some form of technology (self-defined) for instructional
purposes. The present study represented an effort to conduct a
quantitatively based survey of the extent of usage of technology for
marketing instruction.
METHODOLOGY
A technology questionnaire containing four sections that address
usage of various types of classroom hardware, software usage, distance
education activity, and respondent demographics, respectively, was
closely patterned after one used in a study of finance faculty (see
Cudd, Tanner, and Lipscomb, in press). A "call for
participants" message was posted on the American Marketing
Association's e-mail list service (ELMAR, which, at the time of the
survey, consisted of 3,200 members). ELMAR subscribers consist of
marketing faculty and others who are interested in the field of
marketing. The list service was chosen due to its convenience and the
lack of funding for conducting a mail survey. ELMAR also provided a
means of reaching a current listing of members of the target population.
Marketing faculty members were requested to respond to the questionnaire
through an Internet homepage, which was accessible via a provided
hotlink. Usable responses were received from 102 marketing faculty for a
response rate of more than three percent.
RESULTS
Respondent Demographics
The demographic characteristics of the respondents are shown in
Table 1. As can be seen from the table, almost three-fourths of the
respondents taught at state-supported, public universities, with more
than fifty-three percent teaching at schools with enrollments of fifteen
thousand students or less; however, more than thirty-two percent were at
schools of more than twenty thousand students. With respect to business
students, more than fifty-two percent were at schools with two thousand
or more students enrolled in the College of Business.
More than eighty percent of the respondents were at universities
that are accredited by the AACSB. Forty-seven percent held the rank of
assistant or associate professor, and thirty-two percent were full
professors. Fifty-nine percent had ten years or less college teaching
experience, and more than fifty-four percent were women.
Crosstabulations and chi-square analysis revealed that male
respondents tended to be full professors while female respondents tended
to be assistant professors, [chi square] = 55.68, p < .01. Male
professors also tended to have been teaching more than 10 years whereas
female professors tended to have been teaching less than 10 years
([chi-square] = 54.25, p < .01).
Hardware Usage in Marketing Instruction
Table 2 shows the amount of usage of various types of hardware per
class during a given semester or quarter by these marketing faculty
members. Transparencies have long been used in many classrooms, and the
inexpensive and non-technical nature of transparencies likely
contributes to their significant usage. However, more than forty-two
percent of the marketing faculty do not use these at all, and more than
forty-four percent only use it twenty percent of their class time or
less.
With respect to videocassette recorder (VCR) usage, more than
eighty-two percent of the faculty used it forty percent of the time or
less in their classes, while more than seventeen percent made no use of
them at all. Even though a large part of class time was not used, the
wide use of VCRs in marketing classes is not surprising, since many
marketing classes focus on promotion, and a study of advertising in
various media forms is almost mandatory.
The use of camcorders and digital cameras was less widespread, with
more than seventy-six percent not using them at all. Only five percent
used them more than twenty percent of their class time.
The extensive shift in marketing instruction to the use of computer
image projection is evidenced by the extremely high percentage of
marketing faculty employing some variation of this type of device (i.e.,
front-orientation, rear-orientation, or wall-mounted). Over ninety-two
percent of the respondents employ front-orientation computer projection
systems, and over half used the systems in over eighty percent of the
class meetings.
Front-orientation computer projection systems are the less
expensive method of providing computer image projection, and typically
involve no more than a computer and projector mounted on a cart for a
total cost of roughly $3,000-4,000. More expensive computer projection
system alternatives include rear-orientation systems resembling free
standing, over-sized television sets, and wall-mounted plasma display panels that resemble thin-line television sets. These devices often
provide digital chalkboard capabilities that enable the instructor to
write electronically directly on the image, as well as slightly better
imagery. Their excessive costs, which fall in the $15,000-to-$25,000
range, contributes to their scarcity and the subsequent low rates of
faculty usage indicated in the survey. Only slightly over seventeen
percent of the responding faculty report any usage of rear-orientation
computer projection systems, and less than four percent employ
wall-mounted plasma display units.
Digital image capture systems (also known as document cameras or
"Elmos") function as closed-circuit television cameras and
bear a physical resemblance to an overhead transparency projector.
Unlike overhead transparency projectors that simply project a visual
image through a magnifying lens, digital image capture systems
electronically scan the image, convert it to digital form, and then
project it to a viewing screen. This process enables the instructor to
simply place a newspaper or book under the camera to project an enlarged
image electronically. A digital image document camera is typically
included as an adjunct to an existing front-orientation projection cart.
The relatively high cost of this item as an auxiliary device, roughly
$1,000-2,500, contributes to its scarcity. The simplicity of use,
however, makes it attractive to less technologically oriented faculty.
Survey responses indicate that slightly more than thirty-eight percent
of the respondents use digital image capture systems, and more than
seven percent of the responding faculty use such systems in more than
twenty percent of the class meetings. The greater availability of
digital images that may be captured via the Internet today may also
contribute the low usage of digital image capture systems by marketing
faculty.
Networked computer labs permit the instructor to guide students
through statistical analyses associated with marketing research and
other activities for specific marketing course, as well as other
coordinated in-class activities requiring computer access. Approximately
half of the respondents provide some instruction in networked computer
labs, but the bulk of the usage involves no more than 20% of the
semester class meetings. Most computer labs are generic with standard
spreadsheet software, rather than being specifically dedicated to use by
marketing classes, which enhances their availability. Consequently, the
use of computer labs for marketing instruction is largely driven by
faculty need.
Software Usage in Marketing Instruction (other than distance
education software)
Table 3 shows classroom usage percentages of the various types of
software (other than distance education software) by the marketing
faculty respondents. Ninety-five percent of responding faculty employ
computer presentation software (e.g., PowerPoint), which is consistent
with the high usage of front-orientation computer presentation hardware
noted earlier. Interestingly, sixty-four percent of the respondents use
this type software more than sixty percent of the time in their classes.
The use of presentation software is especially beneficial in marketing
courses that require graphs tables, pictures, charts, and even slides of
notes. Students typically come to class with advanced hard copies of the
presentation slides, which permits student attention to be directed to
the instructor's lecture, rather than focusing on copying down the
projected images. Textbook publishers have also fueled the popularity of
presentation software by supplying author-written presentation software
for many textbooks.
While some might argue that spreadsheet analysis is not the primary
tool of the marketing manager, the use of spreadsheets is still
important when doing statistical comparisons and analyses, such as the
comparison of sales figures for different areas and/or making sales
forecasts under different conditions. Thus, the relatively high
percentage of more than seventy percent of responding faculty using
spreadsheet software is expected. Publishers also commonly provide
student disks with spreadsheet templates for cases and problems.
Consequently, the most common usage rate, which was greater than
fifty-six percent, occurs with the minimum of class meetings.
Database management software (e.g., Access) should be of some value
in some marketing courses (such as advertising, research, and
logistics); however, eighty-five percent of the responding marketing
faculty did not use database software at all in their classes. Also, of
the fifteen percent that use this type software ten percent use it the
minimum of class time.
Distance Education Software and Activity in Marketing Instruction
Some universities are dedicated to course offerings delivered
exclusively through distance education (e.g., University of Phoenix).
Virtually all universities provide distance education delivery for
selected courses, and the trend appears to be toward increasing the
percentage of curricula available online. A breakdown of the number of
marketing courses delivered via distance education is displayed in Table
4. Roughly one out of every three marketing faculty members teaches any
courses in a distance education environment. Almost seventeen percent of
the respondents conduct marketing instruction via distance education for
one class, and only around eleven percent conduct distance education for
more than one class. The questionnaire, however, did not obtain
fractional course information concerning distance education. For
example, some courses are offered on a 50/50 basis (i.e., 50% online and
50% in a traditional classroom mode). Consequently, it is possible that
some of the above participation percentages may reflect fractional
online course activity.
In addition to traditional correspondence courses and course
lectures offered via the Public Broadcasting System, there are three
newer technology-based methods of distance education course delivery.
First, many universities sponsor local sites for course offerings
managed by intranet software (e.g., BlackBoard or WebCT). This provides
an online environment for each student to submit questions, obtain
responses (from the instructor or other students), obtain course
documents (such as course syllabi, presentation software files,
spreadsheet files, data management files, special readings documents,
etc.), hold chat sessions with other students, obtain course
assignments, submit completed assignments, and check grade status. The
accompanying whiteboard software also provides the ability for students
and faculty to simultaneously write on the same electronic document.
This type of online visual aid supports virtual class meetings held
online. Whiteboard software only offers practical support of spontaneous student written replies (i.e., a Socratic environment) if each student
is equipped with an electronic writing tablet.
Second, textbook publishers provide similar homepages for each
specific textbook offering. These Internet sites provide the same
services and offerings as intranet pages, except the publisher provided
homepages are national or international in scope, and students
nationwide will not all be covering the same chapters at the same time.
A third method of offering courses via distance education is
through video conferencing (i.e., compressed video). Compressed video
conferencing software (e.g., PictureTel, PolyCom, Net Meeting, etc.)
enables students to attend a local physical classroom and receive and
interact with an instructor at a remote location through two-way video
and audio hardware and software. One deterrent to this mode of distance
education is the relatively high cost of offering courses in this
manner, which include the usage cost of the communications lines, remote
classrooms, and compressed video equipment at all classroom sites.
Table 5 shows the results for distance education activity in
instruction. These results may reflect faculty who are offering part or
all of their coursework online, as well as those who use the software as
a supplement to traditional classroom delivery. Twenty-nine percent of
the marketing faculty does not engage in distance education through
their local intranet, and only thirty-two percent use this media for
supporting more than 40% of the class meetings. Nineteen percent of the
faculty who use this media for almost all of the class meetings likely
reflects instruction of purely online courses.
More than seventy-one percent of these marketing faculty members
use Internet-based software for course instruction, with more than
thirty-two percent using the Internet for twenty percent or less of
their class meetings. The greater popularity of publisher-based textbook
Internet sites may be attributed to several factors. The sites come
already tailor-made for the specific textbook, when enhances the ease of
their use. Such sites may also offer downloadable author-prepared
computer presentation slides and online study quizzes, in addition to
the types of materials available with more generic intranet-based
homepages.
Video conferencing is rarely practiced in the delivery of finance
courses, with only slightly more than eight percent of the faculty using
this mode of course delivery, and only four percent using it for more
than twenty percent of the class meetings. Again, the relatively high
cost may inhibit this method of course delivery. Lastly, although not
included in Table 5, almost one-third of the respondents stated that
they used e-mail as their only form of distance education software.
Comparison Tests of Usage
In addition to overall usage rates of various types of hardware,
software, and distance education delivery method by marketing faculty,
tests of significance were made to determine if usage differed by
gender, academic rank, type of institution (i.e., whether the respondent
taught at private or public universities), and years of teaching
experience. Table 6 shows the results of significance tests of usage as
a function of gender. Because certain usage categories had a limited
number of respondents, the highest four usage categories were collapse
into one "More than 20% of the time" category, so as to
facilitate the use of chi-square independence of classification
analysis. This will be the case for all subsequent analyses. The
analysis revealed that significantly more of the female marketing
faculty members reported using transparencies in their classes in the
1-20 percent category, and significantly more males using overheads in
the more than 20 percent category ([x.sup.2] = 6.287, p = .043). No
other significant differences in classroom usage frequency as a function
of gender for hardware were found It is apparent, however, that,
overall, both genders made relatively high use of VCRs and
front-orientation computer projection systems, while little use was made
of such hardware items as camcorders/ digital cameras, rear-orientation
computer projection systems, wall-mounted plasma display panels, and
digital image capture systems.
Both female and male marketing faculty make extensive use of
computer presentation software and spreadsheet software. However,
neither gender spent much time on database management software in their
classes.
Females make significantly greater use of the intranet software in
their distance education classes ([x.sup.2] = 8.0, p = .018). In fact,
more than forty percent of the males did not use the intranet at all.
Also, more than seventy-five percent of the females and sixty-five
percent of the males made some use of the internet, while very little
use of video conferencing software for distance education was made by
either gender.
Table 7 shows the results of significance tests for differences in
usage by academic rank. The two groups were full professors and
associate professors (the higher/senior ranking faculty) versus
assistant professors and instructors or lower (the lower/junior ranking
faculty). With respect to hardware, the full professors and associate
professors use rear orientation computer projection systems more than
the assistant professor and lower-ranked faculty, ([x.sup.2] = 7.068, p
= .029) although neither group makes what could be termed extensive use
of such hardware. More than half of both groups make some use of
overhead transparencies, and more than eighty percent of both groups
make some use of VCRs and front-orientation projection systems in their
classes, while neither group makes much use of wall-mounted plasma
display panels or digital image capture systems.
With respect to software usage, marketing faculty of upper and
lower ranks make relatively extensive use of computer spreadsheet
software and spreadsheet software with no significant difference between
the two groups. Neither group made extensive use of database management
software.
With respect to delivery methods used for distance education,
marketing faculty at both the higher and lower academic ranks were
relatively evenly-distributed concerning the use of intranet and
internet delivery systems while neither group made very much use of
video conferencing.
Table 8 shows the results of significance tests for difference in
usage as a function of teaching at public, state-supported universities
or at private universities. Marketing faculty respondents at private
universities make significantly more use of VCRs ([x.sup.2] = 8.091, p =
.017) and camcorders/digital cameras ([x.sup.2] = 7.422, p = .024) than
do their counterparts at the public, state-supported universities. Other
than these two types of hardware there were no significant differences
by type of hardware, software, or distance education software delivery
used. Faculty at both public and private universities make relatively
heavy use of front-orientation computer projection systems and computer
presentation software, and relatively light use of wall-mounted plasma
display panels, digital image capture systems, spreadsheet and database
management software, and videoconferencing as a means of delivering
distance education.
Table 9 shows the results of significance tests on amount of usage
of hardware, software, and distance education delivery software as a
function of years of teaching experience by the marketing faculty
respondents. Although both faculty with more than ten years teaching
experience and those with ten years or less experience make relatively
low use of classroom time using rear-orientation computer projection
systems, those with relatively more experience use this type hardware
significantly more than those with ten years experience or less
([x.sup.2] = 6.084, p = .048). Similarly, those faculty members with
relatively more teaching experience make more frequent use of
wall-mounted plasma displays ([x.sup.2] = 5.996, p = .05). With respect
to all other types of hardware, software, and all types of distance
education delivery software, no significant differences were found
between the more experienced marketing faculty respondents and those
with less experience.
DISCUSSION
As expected, the results indicate that, in general, marketing
faculty have begun to make considerable use of technological innovations
to supplement their instructional efforts. Indeed, in some cases, the
product adoption process appears to be well underway. For example, among
those members of the AMA who responded, an extraordinarily high
percentage (92.1%) makes some regular use of front-oriented computer
projection devices in the classroom. Clearly, the nature of equipment
provided by the university is a major factor in the adoption of the
technology by faculty. Although beyond the scope of the present study,
it would be interesting to explore the process of institutional adoption
of technology at universities in order to discover how purchasing
decisions are made. For example, how much impact do faculty have in
equipping labs and classrooms? The current results indicate that
relatively more expensive projection systems such as rear-oriented and
wall-mounted systems are used by much smaller percentages of faculty
members. Cost barriers are likely a major factor in this trend.
Front-orientation computer projection systems are the less expensive
method of providing computer image projection, and typically involve no
more than a computer and projector mounted on a cart for a total cost of
roughly $3,000-4,000. More expensive computer projection system
alternatives include rear-orientation systems resembling free standing,
over-sized television sets, and wall-mounted plasma display panels that
resemble thin-line television sets. These devices often provide digital
chalkboard capabilities that enable the instructor to write
electronically directly on the image, as well as slightly better
imagery. Their relatively high costs, which fall in the
$15,000-to-$25,000 range, likely contributes to their scarcity and the
subsequent low rates of faculty usage indicated in the survey.
The present results also indicate a low rate of usage for digital
image capture systems (also known as document cameras or
"Elmos"). Such systems function as closed-circuit television
cameras and bear a physical resemblance to an overhead transparency
projector. Unlike overhead transparency projectors that simply project a
visual image through a magnifying lens, digital image capture systems
electronically scan the image, convert it to digital form, and then
project it to a viewing screen. This process enables the instructor to
simply place a newspaper or book under the camera to project an enlarged
image electronically. A digital image document camera is typically
included as an adjunct to an existing front-orientation projection cart.
The relatively high cost of this item as an auxiliary device, roughly
$1,000-2,500, likely contributes to its scarcity as well. The simplicity
of use, however, may make it relatively attractive to less
technologically oriented faculty Approximately half of the respondents
reported some degree of use of networked computer labs in their courses.
The majority of these reported patterns of usage of less than 20% of the
course. Networked computer labs permit the instructor to guide students
through statistical analyses associated with marketing research and
other activities for specific marketing courses, as well as other
coordinated in-class activities requiring computer access. Most
universities provide more generically oriented lab facilities
appropriate for use by multiple disciplines and not specific to the
marketing profession.
With respect to software, 95% of those responding indicated the
regular use of computer presentation software such as PowerPoint. Of
these, 64% reported using such software more than 60% of the time in
their courses. This suggests the utility of such a delivery method in
teaching marketing concepts. Textbook publishers have also fueled the
popularity of presentation software by supplying complimentary
presentation software for many textbooks. Lindstrom (1998) notes that
PowerPoint controls over 93% of the presentation software market in the
world.
While some might argue that spreadsheet analysis is not the primary
tool of the marketing manager, the use of spreadsheets is still
important when doing statistical comparisons and analyses, such as the
comparison of sales figures for different areas and/or making sales
forecasts under different conditions. Publishers also commonly provide
student disks with spreadsheet templates for cases and problems. Nearly
70% of respondents indicated some degree of usage of such software. By
the same token, much lower percentages of use were reported for database
management software (e.g. Access). Since availability is likely not an
issue, this suggests that these programs are not as useful in the
teaching of marketing. However, if more marketing programs integrate the
growing topic of customer relationship management (CRM), with its
emphasis on database mining, we may see an increased use of database
management software in marketing classes. As this study was patterned
after an earlier one (Cudd, Tanner, and Lipscomb, in press), the use of
data mining was not explored in the present study. This is a topic that
should be included in future investigations.
Some universities are dedicated to course offerings delivered
exclusively through distance education (e.g., University of Phoenix).
Virtually all universities provide distance education delivery for
selected courses, and the trend appears to be toward increasing the
percentage of curricula available online. Interestingly, nearly a third
of the marketing faculty members responding indicated that they are
involved or have been involved in using distance learning technology to
teach at least one course while 71.6% have not done so. In addition to
traditional correspondence courses and course lectures offered via the
Public Broadcasting System, there are three newer technology-based
methods of distance education course delivery. First, many universities
sponsor local sites for course offerings managed by intranet software
(e.g., BlackBoard or WebCT). This provides an online environment for
each student to submit questions, obtain responses (from the instructor
or other students), obtain course documents (such as course syllabi,
presentation software files, spreadsheet files, data management files,
special readings documents, etc.), hold chat sessions with other
students, obtain course assignments, submit completed assignments, and
check grade status. The accompanying whiteboard software also provides
the ability for students and faculty to simultaneously write on the same
electronic document. This type of online visual aid supports virtual
class meetings online. Whiteboard software offers practical support of
spontaneous student written replies (a Socratic environment) if each
student is equipped with an electronic writing tablet.
Second, textbook publishers provide similar homepages for each
specific textbook offering. These Internet sites provide the same
services and offerings as intranet pages; except the publisher-provided
homepages are national or international in scope, and students
nationwide will not all be covering the same chapters at the same time.
A third method of offering courses via distance education is through
video conferencing (i.e., compressed video). Compressed video
conferencing software (e.g., PictureTel, PolyCom, Net Meeting, etc.)
enables students to attend a local physical classroom and receive and
interact with an instructor at a remote location through two-way video
and audio hardware and software. One deterrent to this mode of distance
education is the relatively high cost of offering courses in this
manner, which include the usage cost of the communications lines, remote
classrooms, and compressed video equipment at all classroom sites.
A number of interesting patterns are apparent in the data as a
function of demographic characteristics of the respondents. One of the
most intriguing of these relates to gender differences in technology
usage patterns. For example, female faculty members report making
significantly greater use of computer presentation software as compared
to their male counterparts. It is interesting that a previous
investigation found the same pattern among Finance faculty members
(Cudd, Tanner, and Lipscomb, in press). Women in the present sample also
report significantly greater use of intranet software in teaching
distance education classes. There were, however, no significant
differences between male and female faculty members with respect to the
various types of hardware employed. Although the specific reasons
underlying gender-based differences in technology usage are unclear, it
is noted that differences were also found as a function of both academic
rank and years of teaching experience. In the present sample women
tended to report fewer years total teaching experience and more junior
academic rank as compared to men.
As mentioned, differences in technology usage patterns were also
found as a function of academic rank. Specifically, junior faculty
members (assistant professors and instructors) make significantly
greater use of front oriented computer projection systems than do senior
faculty (professors and associate professors) whereas senior faculty
make relatively greater use of rear-oriented projection equipment. In
addition, senior faculty make relatively greater use of networked
computer labs as compared to junior faculty members with usage in
neither case exceeding 40%.
Years of experience also found to be related to patterns of
technology usage. Significant differences were found in comparing those
with more than ten years of teaching experience with those with ten
years or less experience. Those with relatively less experience reported
both using front-oriented projection systems and computer presentation
software more than did those with more experience. On the other hand,
more experience faculty members reported using wall-mounted plasma
projection and networked computer labs more than did less experienced
faculty members but overall usage was rather low in both cases.
In order to better understand the present findings, the significant
relationships among gender, rank, and years teaching, is worthy of
discussion. Since women in the present sample tended to be assistant
professors and have spent less time in the college teaching profession,
gender-based differences in technology utilization may be a function of
more recent training. That is, more recent entrants into the
"marketing academy" may have had greater exposure to and
greater expertise with the use of technology for instructional purposes.
The possibility that this is the case is worthy of further investigation
in future studies.
Rogers' views on the diffusion of innovation apply here:
"A technological innovation usually has at least some degree of
benefit for its potential adopters, but this advantage is not always
clear cut to those intended adopters. They are seldom certain that an
innovation represents a superior alternative to the previous practice
that it would replace, at least when they learn about it" (Rogers
2003, p. 14). As marketing professors become better acquainted with the
new technological innovations and as more universities acquire and make
these available to faculty it is likely that we will see diminished use
of some "old friends" like transparencies, overhead
projectors, VCRs, and camcorders in favor of these newer innovations.
Many of the newer technologies incorporate features of some of the older
ones. For instance, Smart Boards allow the projection of videotapes
through connecting VCRs. Wireless technologies may soon make even more
radical changes in our classroom. As was noted above, more than 3/4 of
participating institutions have already established wireless LANS
(Campus Computing Project, 2003)
There are several limitations of this study. These include
self-selection bias, sample size, and the lack of sampling error
measurement from the use of a web-based survey. All of these suggest
that caution is in order in generalizing the present findings to
marketing faculty as a whole. One participant commented in an e-mail
message to one of the authors that the wording of our opening question
is problematic. It would have been better to ask professors to focus on
a particular semester, rather than on semester class time in general.
Answers might vary greatly from semester to semester, depending on
several factors. Thus, the question wording should be considered another
limitation of this study. Never the less, the present exploratory study
may have considerable value in serving as a benchmark against which
future research can gauge trends in technology adoption and use for the
purposes of instruction in marketing.
Just as professors become more comfortable with collecting data
over the Internet rather than via the telephone or mail, we also become
more comfortable using the technological innovations that come into our
classrooms. One key question, though, that has not been addressed, and
probably should be, is this: with all the new technology, are marketing
departments (and deans) prepared to provide the financial support and
technical training that will be required (mandated?) by all these
technological pedagogical enhancements? Time will tell.
REFERENCES
Cudd, M., J. Tanner, & T. Lipscomb (In Press). A profile of
technology usage in the finance classroom. Journal of Financial
Education.
Evans, J.R. (2001). The emerging role of the internet in marketing
education: From traditional teaching to technology-based instruction.
Marketing Education Review, 11(3), 1-14.
Ferrell, O.C. & L. Ferrell (2002). Assessing instructional
technology in the classroom. Marketing Education Review, 12 (3), 19-24.
Malhotra, N. (2002). Integrating technology in marketing education:
Perspective for the new millenium. Marketing Education Review, 12(3),
1-5.
Peterson, R., G. Albaum, J. Munuera, & W. Cunningham(2002).
Reflections on the use of instructional technology in marketing
education. Marketing Education Review, 12(3), 7-17.
Reeves, T. (1998). Future Shock, The Computer Delusion, and The End
of Education: Responding to critics of educational technology.
Educational Technology, 38, 49-53.
Rogers, E.M. (2003). Diffusion of innovations (Fifth Edition). New
York: The Free Press.
Smith, L. (2001). Content and delivery: A comparison and contrast
of electronic and traditional MBA marketing planning courses. Journal of
Marketing Education, 23, 35-44.
"The 2003 National Survey of Information Technology in US
Higher Education" (2003), Campus Computing Project (October).
Thomas J. Lipscomb, Southeastern Louisiana University
Jeffrey W. Totten, Southeastern Louisiana University
John R. Tanner, University of Louisiana--Lafayette
Table 1: Sample Demographics
n %
Type of University State 73 73.0%
Private 27 27.0%
University Enrollment Less than 5000 13 12.9%
5001-10000 25 24.7%
10001-15000 16 15.8%
15001-20000 14 13.9%
More than 20000 33 32.7%
AACSB Accreditation Accredited 79 80.6%
Not accredited 19 19.4%
College of Bus. Enr. [less than or 14 14.4%
equal to] 1000
1000-2000 32 33.0%
Over 2000 51 52.6%
Academic Rank Assistant professor 20 20.0%
Associate professor 27 27.0%
Full professor 32 32.0%
Instructor/Lecturer 21 21.0%
Gender Male 46 45.5%
Female 55 54.5%
Years Teaching 1-5 years 36 36.0%
10-May 23 23.0%
15-Oct 13 13.0%
15-20 8 8.0%
Over 20 years 20 20.0%
Table 2 Hardware Usage Per Semester/Quarter
Percentage of Respondents
Types of Hardware Used During Class Time
None of 1-20% of
the Time the Time
Overhead Transparencies 42.2 44.1
VCRs 17.6 75.5
Camcorders/Digital Cameras 76.2 18.8
Front-Orientation Computer
Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer
projectors, etc,) 7.9 4.0
Rear-Orientation Computer Projection
Systems (e.g., SmartBoards, whiteboards,
wall-mounted plasma displays, etc.)
Note: These look like an oversized TV. 82.4 7.8
Wall-Mounted Plasma Display Panels
Note: These look like a thin-line TV. 96.0 2.0
Digital Image Capture Systems (e.g.,
document camera "Elmo," scan
converters, etc.) 61.8 30.4
Networked Computer Labs 40.6 27.7
Percentage of Respondents
Types of Hardware Used During Class Time
21-40% of 41-60% of
the Time the Time
Overhead Transparencies 4.9 5.9
VCRs 6.9 0.0
Camcorders/Digital Cameras 3.0 1.0
Front-Orientation Computer
Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer
projectors, etc,) 10.9 10.9
Rear-Orientation Computer Projection
Systems (e.g., SmartBoards, whiteboards,
wall-mounted plasma displays, etc.)
Note: These look like an oversized TV. 2.0 3.9
Wall-Mounted Plasma Display Panels
Note: These look like a thin-line TV. 1.0 0.0
Digital Image Capture Systems (e.g.,
document camera "Elmo," scan
converters, etc.) 2.9 2.9
Networked Computer Labs 14.8 2.0
Percentage of Respondents
Types of Hardware Used During Class Time
61-80% of 81-100% of
the Time the Time
Overhead Transparencies 0.0 2.9
VCRs 0.0 0.0
Camcorders/Digital Cameras 1.0 0.0
Front-Orientation Computer
Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer
projectors, etc,) 10.9 52.4
Rear-Orientation Computer Projection
Systems (e.g., SmartBoards, whiteboards,
wall-mounted plasma displays, etc.)
Note: These look like an oversized TV. 1.0 2.9
Wall-Mounted Plasma Display Panels
Note: These look like a thin-line TV. 1.0 0.0
Digital Image Capture Systems (e.g.,
document camera "Elmo," scan
converters, etc.) 1.0 1.0
Networked Computer Labs 5.0 9.9
Table 3: Software Usage Per Semester/Quarter
Types of Software Used
During Class Time Percentage of Respondents
None of 1-20% of 21-40% of
the Time the Time the Time
Computer Presentation 5.0 4.0 8.0
Software
Spreadsheet Software 30.3 56.6 8.1
Database Management 85.0 10.0 2.0
Software
Types of Software Used
During Class Time Percentage of Respondents
41-60% of 61-80% of 81-100% of
the Time the Time the Time
Computer Presentation 19.0 17.0 47.0
Software
Spreadsheet Software 3.0 0.0 2.0
Database Management 1.0 0.0 2.0
Software
Table 4: Number of Distance Education Courses Taught Per
Semester/Quarter
# Distance Education Percentage of
Courses Taught Per Term Respondents
0 Courses 71.6%
1 Course 16.8%
2 Courses 7.4%
3 Courses 0.0%
4 Courses 0.0%
More than 4 Courses 4.2%
Table 5: Distance Education Delivery
Delivery Method Percentage of Respondents
None of the 1-20% of 21-40% of
Time the Time the Time
Distance Education 29.0 31.0 8.0
Software-Intranet
Distance Education 28.9 39.2 14.4
Software-Internet
Distance Education 91.9 4.1 3.0
Software-Video
Conferencing
Percentage of Respondents
41-60% of 61-80% of 81-100% of
the Time the Time the Time
Distance Education 11.0 2.0 19.0
Software-Intranet
Distance Education 10.3 1.0 6.2
Software-Internet
Distance Education 1.0 0.0 0.0
Software-Video
Conferencing
Table 6: Comparison of Technology based on Gender
Percent of Respondents
Females Males
Types of Hardware Used
During Class Time
Overhead Transparencies:
0 percent of the time 43.6% 41.3%
1 - 20% of the time 50.9% 37.0%
More than 20% of the time 5.5% 21.7%
VCRs:
0 percent of the time 16.4% 19.6%
1 - 20% of the time 78.2% 71.7%
More than 20% of the time 5.5% 8.7%
Camcorders/Digital Cameras:
0 percent of the time 70.9% 82.2%
1 - 20% of the time 21.8% 15.6%
More than 20% of the time 7.3% 2.2%
Front-Orientation Computer
Projection Systems (e.g., cart-
mounted, ceiling-mounted, portable
computer projectors, etc,):
0 percent of the time 9.1% 6.7%
1 - 20% of the time 0.0% 8.9%
More than 20% of the time 90.9% 84.4%
Rear-Orientation Computer
Projection Systems (e.g.,
SmartBoards, whiteboards,
wall-mounted plasma displays,
etc.; note: These look like an
oversized TV.):
0 percent of the time 80.0% 84.8%
1 - 20% of the time 12.7% 2.2%
More than 20% of the time 7.3% 13.0%
Wall-Mounted Plasma Display
Panels (Note: These look like
a thin-line TV.):
0 percent of the time 96.4% 95.7%
1 - 20% of the time 1.8% 2.2%
More than 20% of the time 1.8% 2.2%
Digital Image Capture Systems
(e.g., document camera "Elmo,"
scan converters, etc.):
0 percent of the time 61.8% 60.9%
1 - 20% of the time 30.9% 30.4%
More than 20% of the time 7.3% 8.7%
Networked Computer Labs:
0 percent of the time 41.8% 37.8%
1 - 20% of the time 23.6% 33.3%
More than 20% of the time 34.6% 28.9%
Types of SOFTware Used During
Class Time Computer
Presentation Software:
0 percent of the time 1.9% 8.9%
1 - 20% of the time 1.9% 6.7%
More than 20% of the time 96.2% 84.4%
Spreadsheet Software:
0 percent of the time 26.4% 35.6%
1 - 20% of the time 60.4% 51.1%
More than 20% of the time 13.2% 13.3%
Database Management Software:
0 percent of the time 85.2% 84.4%
1 - 20% of the time 11.1% 8.9%
More than 20% of the time 3.7% 6.7%
Delivery Method (For
Distance Education) Distance
Education Software-Intranet:
0 percent of the time 16.7% 42.2%
1 - 20% of the time 35.2% 26.7%
More than 20% of the time 48.1% 31.1%
Distance Education
Software-Internet:
0 percent of the time 24.5% 34.9%
1 - 20% of the time 43.4% 37.8%
More than 20% of the time 32.1% 32.6%
Distance Education Software-
Video Conferencing:
0 percent of the time 94.3% 88.9%
1 - 20% of the time 5.7% 2.2%
More than 20% of the time 0.0% 8.9%
* Significant at [alpha] = .05
[chi square] p value
Types of Hardware Used
During Class Time
Overhead Transparencies:
0 percent of the time
1 - 20% of the time
More than 20% of the time 6.287 .043 *
VCRs:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.662 .718
Camcorders/Digital Cameras:
0 percent of the time
1 - 20% of the time
More than 20% of the time 2.190 .334
Front-Orientation Computer
Projection Systems (e.g., cart-
mounted, ceiling-mounted, portable
computer projectors, etc,):
0 percent of the time
1 - 20% of the time
More than 20% of the time 5.188 .075
Rear-Orientation Computer
Projection Systems (e.g.,
SmartBoards, whiteboards,
wall-mounted plasma displays,
etc.; note: These look like an
oversized TV.):
0 percent of the time
1 - 20% of the time
More than 20% of the time 4.434 .109
Wall-Mounted Plasma Display
Panels (Note: These look like
a thin-line TV.):
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.033 .983
Digital Image Capture Systems
(e.g., document camera "Elmo,"
scan converters, etc.):
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.07 .966
Networked Computer Labs:
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.180 .554
Types of SOFTware Used During
Class Time Computer
Presentation Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 4.194 .123
Spreadsheet Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.037 .595
Database Management Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.548 .760
Delivery Method (For
Distance Education) Distance
Education Software-Intranet:
0 percent of the time
1 - 20% of the time
More than 20% of the time 8.000 .018 *
Distance Education
Software-Internet:
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.598 .450
Distance Education Software-
Video Conferencing:
0 percent of the time
1 - 20% of the time
More than 20% of the time 5.495 .064
* Significant at [alpha] = .05
Table 7: Comparison of Technology based on Rank
Types of Hardware USED DURING Percent of Respondents
CLASS TIME
Full/Assoc. Assistant Professors
Professors or Lower
Overhead Transparencies:
0 percent of the time 44.7% 41.5%
1-20% of the time 36.2% 50.9%
More than 20% of the time 19.1% 7.6%
VCRs:
0 percent of the time 17.0% 18.9%
1-20% of the time 74.5% 75.5%
More than 20% of the time 8.5% 5.6%
Camcorders/Digital Cameras:
0 percent of the time 72.3% 78.7%
1- 20% of the time 21.3% 17.3%
More than 20% of the time 6.4% 3.8%
Front-Orientation Computer Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer projectors, etc,):
0 percent of the time 12.8% 1.9%
1-20% of the time 6.4% 1.9%
More than 20% of the time 80.8% 86.2%
Rear-Orientation Computer Projection Systems (e.g., SmartBoards,
whiteboards, wall-mounted plasma displays, etc.; note: These look
like an oversized TV.):
0 percent of the time 76.6% 88.7%
1-20% of the time 6.4% 9.4%
More than 20% of the time 17.0% 1.9%
Wall-Mounted Plasma Display Panels (Note: These look like a
thin-line TV.):
0 percent of the time 91.4% 100.0%
1-20% of the time 4.3% 0.0%
More than 20% of the time 4.3% 0.0%
Digital Image Capture Systems (e.g., document camera "Elmo," scan
converters, etc.):
0 percent of the time 59.6% 62.3%
1-20% of the time 27.7% 34.0%
More than 20% of the time 12.7% 3.7%
Networked Computer Labs:
0 percent of the time 32.6% 47.2%
1-20% of the time 30.4% 26.4%
More than 20% of the time 37.0% 26.4%
Computer Presentation Software:
0 percent of the time 8.7% 1.9%
1-20% of the time 6.5% 1.9%
More than 20% of the time 84.8% 96.2%
Spreadsheet Software:
0 percent of the time 37.8% 23.1%
1-20% of the time 48.9% 63.4%
More than 20% of the time 13.3% 13.5%
Database Management Software:
0 percent of the time 80.4% 88.5%
1-20% of the time 10.9% 9.6%
More than 20% of the time 8.7% 1.9%
Distance Education Software-Intranet:
0 percent of the time 34.0% 23.5%
1-20% of the time 27.7% 35.3%
More than 20% of the time 38.3% 41.2%
Distance Education Software-Internet:
0 percent of the time 33.3% 26.0%
1-20% of the time 33.4% 44.0%
More than 20% of the time 33.3% 30.0%
Distance Education Software-Video Conferencing:
0 percent of the time 87.0% 96.0%
1-20% of the time 6.5% 2.0%
More than 20% of the time 6.5% 2.0%
Types of Hardware USED DURING
CLASS TIME [chi square] p value
Overhead Transparencies:
0 percent of the time
1-20% of the time
More than 20% of the time 3.873 .144
VCRs:
0 percent of the time
1-20% of the time
More than 20% of the time 0.340 .844
Camcorders/Digital Cameras:
0 percent of the time
1- 20% of the time
More than 20% of the time 0.655 .821
Front-Orientation Computer Projection
mounted, portable computer
0 percent of the time
1-20% of the time
More than 20% of the time 5.970 .051
Rear-Orientation Computer Projection Systems (e.g., SmartBoards,
whiteboards, wall-mounted plasma displays, etc.; note: These
look like an oversized TV.):
0 percent of the time
1-20% of the time
More than 20% of the time 7.068 .029 *
Wall-Mounted Plasma Display Panels (Note: These
0 percent of the time
1-20% of the time
More than 20% of the time 4.699 .095
Digital Image Capture Systems (e.g., document camera
etc.):
0 percent of the time
1-20% of the time
More than 20% of the time 2.867 .239
Networked Computer Labs:
0 percent of the time
1-20% of the time
More than 20% of the time 2.307 .317
Computer Presentation Software:
0 percent of the time
1-20% of the time
More than 20% of the time 3.806 .149
Spreadsheet Software:
0 percent of the time
1-20% of the time
More than 20% of the time 2.648 .266
Database Management Software:
0 percent of the time
1-20% of the time
More than 20% of the time 2.418 .299
Distance Education Software-Intranet:
0 percent of the time
1-20% of the time
More than 20% of the time 1.448 .485
Distance Education Software-Internet:
0 percent of the time
1-20% of the time
More than 20% of the time 1.207 .547
Distance Education Software-Video
0 percent of the time
1-20% of the time
More than 20% of the time 2.659 .265
* Significant at " = .05
Table 8: Comparison of Technology based on Type of University
Types of Hardware USED DURING Percent of Respondents
CLASS TIME Public Private
Overhead Transparencies:
0 percent of the time 42.5% 44.5%
1 - 20% of the time 47.8% 37.0%
More than 20% of the time 9.7% 18.5%
VCRs:
0 percent of the time 20.6% 11.1%
1 - 20% of the time 76.7% 70.4%
More than 20% of the time 2.7% 18.5%
Camcorders/Digital Cameras:
0 percent of the time 79.2% 66.7%
1 - 20% of the time 19.4% 18.5%
More than 20% of the time 1.4% 14.8%
Front-Orientation Computer Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer projectors, etc,):
0 percent of the time 9.7% 3.7%
1 - 20% of the time 2.8% 7.4%
More than 20% of the time 87.5% 88.9%
Rear-Orientation Computer Projection Systems (e.g., SmartBoards,
whiteboards, wall-mounted plasma displays, etc.; note: These look
like an oversized TV.):
0 percent of the time 84.9% 74.1%
1 - 20% of the time 5.5% 14.8%
More than 20% of the time 9.6% 11.1%
Wall-Mounted Plasma Display Panels (Note: These look like a
thin-line TV.):
0 percent of the time 97.2% 92.6%
1 - 20% of the time 1.4% 3.7%
More than 20% of the time 1.4% 3.7%
Digital Image Capture Systems (e.g., document camera "Elmo," scan
converters, etc.):
0 percent of the time 61.6% 59.3%
1 - 20% of the time 31.5% 29.6%
More than 20% of the time 6.9% 11.1%
Networked Computer Labs:
0 percent of the time 38.4% 46.2%
1 - 20% of the time 24.7% 34.6%
More than 20% of the time 37.0% 19.2%
Computer Presentation Software:
0 percent of the time 4.2% 7.4%
1 - 20% of the time 2.8% 7.4%
More than 20% of the time 93.0% 85.2%
Spreadsheet Software:
0 percent of the time 28.6% 37.0%
1 - 20% of the time 58.6% 48.1%
More than 20% of the time 12.9% 14.8%
Database Management Software:
0 percent of the time 87.3% 77.8%
1 - 20% of the time 7.0% 18.5%
More than 20% of the time 5.6% 3.7%
DELIVERY METHOD (for distance education)
Distance Education Software-Intranet:
0 percent of the time 25.4% 33.3%
1 - 20% of the time 33.8% 25.9%
More than 20% of the time 40.8% 40.8%
Distance Education Software-Internet:
0 percent of the time 27.5% 30.8%
1 - 20% of the time 40.6% 34.6%
More than 20% of the time 31.9% 34.6%
0 percent of the time 91.4% 92.6%
1 - 20% of the time 4.3% 3.7%
More than 20% of the time 4.3% 3.7%
Types of Hardware USED DURING
CLASS TIME [chi square] p value
Overhead Transparencies:
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.849 .397
VCRs:
0 percent of the time
1 - 20% of the time
More than 20% of the time 8.091 .017 *
Camcorders/Digital Cameras:
0 percent of the time
1 - 20% of the time
More than 20% of the time 7.422 .024 *
Front-Orientation Computer Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer projectors, etc,):
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.926 .382
Rear-Orientation Computer Projection Systems (e.g.,
wall-mounted plasma displays, etc.; note: These
0 percent of the time
1 - 20% of the time
More than 20% of the time 2.476 .290
Wall-Mounted Plasma Display Panels (Note: These
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.118 .572
Digital Image Capture Systems (e.g., document camera
etc.):
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.488 .783
Networked Computer Labs:
0 percent of the time
1 - 20% of the time
More than 20% of the time 2.855 .240
Computer Presentation Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.528 .466
Spreadsheet Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.887 .642
Database Management Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 2.878 .237
DELIVERY METHOD (for distance education)
Distance Education Software-Intranet:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.836 .658
Distance Education Software-Internet:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.285 .867
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.035 .983
* Significant at [alpha] = .05
Table 9: Comparison of Technology based on Years of Teaching
Experience
Types of Hardware USED DURING Percent of Respondents
CLASS TIME
10 Years More than
or Less 10 Years
Overhead Transparencies:
0 percent of the time 40.7% 46.4%
1 - 20% of the time 47.4% 39.0%
More than 20% of the time 11.9% 14.6%
VCRs:
0 percent of the time 18.6% 17.1%
1 - 20% of the time 76.3% 73.2%
More than 20% of the time 5.1% 9.7%
Camcorders/Digital Cameras:
0 percent of the time 75.9% 75.6%
1 - 20% of the time 20.7% 17.1%
More than 20% of the time 3.4% 7.3%
Front-Orientation Computer Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer projectors, etc,):
0 percent of the time 3.4% 12.2%
1 - 20% of the time 1.7% 7.3%
More than 20% of the time 94.8% 80.5%
0 percent of the time 86.4% 78.0%
1 - 20% of the time 10.2% 4.9%
More than 20% of the time 3.4% 17.1%
Wall-Mounted Plasma Display Panels (Note: These look like a
thin-line TV.):
0 percent of the time 100.0% 90.2%
1 - 20% of the time 0.0% 4.9%
More than 20% of the time 0.0% 4.9%
Digital Image Capture Systems (e.g., document camera "Elmo," scan
converters, etc.):
0 percent of the time 62.7% 58.5%
1 - 20% of the time 32.2% 29.3%
More than 20% of the time 5.1% 12.2%
Networked Computer Labs:
0 percent of the time 45.8% 32.5%
1 - 20% of the time 27.1% 30.0%
More than 20% of the time 27.1% 37.5%
Computer Presentation Software:
0 percent of the time 1.7% 10.0%
1 - 20% of the time 1.7% 7.5%
More than 20% of the time 96.6% 82.5%
Spreadsheet Software:
0 percent of the time 22.4% 41.0%
1 - 20% of the time 63.8% 46.2%
More than 20% of the time 13.8% 12.8%
Database Management Software:
0 percent of the time 84.5% 85.0%
1 - 20% of the time 12.1% 7.5%
More than 20% of the time 3.4% 7.5%
Distance Education Software-Intranet:
0 percent of the time 21.1% 39.0%
1 - 20% of the time 35.1% 26.8%
More than 20% of the time 43.9% 34.1%
Distance Education Software-Internet:
0 percent of the time 25.5% 35.0%
1 - 20% of the time 41.8% 35.0%
More than 20% of the time 32.7% 30.0%
Distance Education Software-Video Conferencing:
0 percent of the time 91.2% 92.5%
1 - 20% of the time 5.3% 2.5%
More than 20% of the time 3.5% 5.0%
Types of Hardware USED DURING
CLASS TIME [chi square] p value
Overhead Transparencies:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.714 .700
VCRs:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.818 .664
Camcorders/Digital Cameras:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.876 .645
Front-Orientation Computer Projection Systems (e.g., cart-mounted,
ceiling-mounted, portable computer projectors, etc,):
0 percent of the time
1 - 20% of the time
More than 20% of the time 5.014 0.081
0 percent of the time
1 - 20% of the time
More than 20% of the time 6.084 .048 *
Wall-Mounted Plasma Display Panels (Note: These look like a thin-
line TV.):
0 percent of the time
1 - 20% of the time
More than 20% of the time 5.996 .050
Digital Image Capture Systems (e.g., document camera "Elmo," scan
converters, etc.):
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.665 .435
Networked Computer Labs:
0 percent of the time
1 - 20% of the time
More than 20% of the time 192.8 .381
Computer Presentation Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 5.628 .060
Spreadsheet Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 3.998 .135
Database Management Software:
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.247 .536
Distance Education Software-Intranet:
0 percent of the time
1 - 20% of the time
More than 20% of the time 3.775 .151
Distance Education Software-Internet:
0 percent of the time
1 - 20% of the time
More than 20% of the time 1.047 .592
Distance Education Software-Video Conferencing:
0 percent of the time
1 - 20% of the time
More than 20% of the time 0.566 .753
* Significant at [alpha] =.05