A version of this article will
appear in Educational Technology magazine, Summer 2008.
Preparing Engineering Faculty to
Teach Online
Greg Kearsley
Abstract
Issues associated with the
preparation of engineering faculty to teach online courses are examined. This
includes: the nature of online teaching, engineering course materials, training
faculty to teach online, use of online resources, course development, and
evaluation of online courses. Selection of faculty and providing adequate
support are important considerations for a successful program.
Introduction
This article describes the
issues associated with preparing university faculty in engineering departments
to teach online courses. The article is
based upon personal experience with two online graduate programs: the Masters
in Engineering Professional Practice (MEPP) at the
Online degree programs for
graduate study continue to be a successful and growing aspect of distance
education in the
Table 1:
Online Graduate Engineering Programs in 2006-2007 (Source: U.S. News & World Report)
|
Institution |
Number of programs |
Enrollment |
Faculty Training |
|
|
6 |
343 |
Yes |
|
|
1 (Engr
Mgmt) |
67 |
Yes |
|
Clemson |
2 |
20 |
No |
|
|
4 |
26 |
- |
|
|
5 |
582 |
Yes |
|
Drexel |
6 |
135 |
Yes |
|
|
1 (Engr
Mgmt) |
107 |
Yes |
|
Florida
Inst Technology |
2 |
46 |
Yes |
|
Georgia
Inst Technology |
5 |
625 |
No |
|
|
6 |
287 |
No |
|
|
6 |
137 |
No |
|
Mercer |
1 (Syst
Engr) |
18 |
No |
|
|
2 |
208 |
Yes |
|
National |
2 |
78 |
Yes |
|
NJIT |
2 |
510 |
Yes |
|
NM State |
1 ( |
50 |
No |
|
NC State |
7 |
571 |
No |
|
|
1 (Civil
Engr) |
65 |
Yes |
|
|
1 ( |
21 |
Yes |
|
|
3 |
205 |
Yes |
|
|
2 |
182 |
Yes |
|
RIT |
2 |
- |
Yes |
|
Stevens |
5 |
526 |
Yes |
|
|
4 |
106 |
Yes |
|
|
3 |
73 |
No |
|
U |
6 |
34 |
Yes |
|
U |
3 |
17 |
No |
|
U |
8 |
356 |
No |
|
U |
6 |
134 |
No |
|
U |
1 (Mech Engr) |
120 |
Yes |
|
U |
2 |
68 |
Yes |
|
U |
5 |
343 |
Yes |
|
U |
2 |
200 |
Yes |
|
U |
6 |
226 |
No |
|
U |
1 (Engr) |
25 |
Yes |
|
USC |
10 |
1301 |
No |
|
U |
4 |
193 |
No |
|
U |
5 |
132 |
Yes |
|
U |
9 |
- |
Yes |
|
U |
5 |
155 |
Yes |
|
U |
3 |
94 |
Yes |
|
Virginia
Tech |
2 |
337 |
Yes |
|
|
1 (Syst
Engr) |
58 |
No |
|
Worchester
Polytech |
2 |
90 |
No |
The nature of online teaching
There is a large literature
about online teaching, much of which reports relevant research findings (e.g.,
Unfortunately a large
percentage of faculty fail to satisfy these criteria and hence are not
successful as online teachers. This is particularly true for faculty who have a
lot of experience with traditional college teaching and are used to giving 1-2
lectures to a class each week. In a good online course, students and
instructors typical interact on a daily basis. In fact, many distance learning
institutions require a response (or at least an acknowledgement) to student
questions within 24-48 hours. On the other hand, faculty who have experience
participating in online research communities will be well prepared for online
teaching since the nature of the interaction required is similar.
Collaborative learning is an
aspect that most faculty have little experience with and hence do not know how
to create or manage it in an online course. In traditional classes, almost all
student work is individual in nature. However, online learning systems afford
opportunities for group work in the context of discussions forums, shared
files, or web conferencing. It is easy for students to work as partners or
teams for assignments or projects. However, this takes some preparation on the
part of the instructor to formulate suitable tasks and assign groups. The
resulting work efforts are also more difficult to grade, although use of peer
evaluation (i.e., students evaluate each other’s work) is usually a good
strategy.
These issues are
particularly salient for engineering faculty, most of whom have a very limited
conception of teaching methods. Homework in engineering classes typically
consists of quantitative problems to be solved with a single numerical
answer…something not very conductive to collaborative approaches. Engineering
faculty do not usually ask students to discuss the underlying assumptions of a
problem, compare alternative solutions, consider the limitations of the
results, or comment on the cost/benefits of a solution – all of which make for
interesting discussions and open up collaborative possibilities. Ironically,
these are the kinds of issues that are very important in real engineering
applications.
Engineering course materials
There are two aspects of the
course materials used in engineering that tend to be different from other
curriculum areas: drawings and equations. Engineering drawings are often
detailed schematics and may be quite large in size. This means that drawings
may need to be enlarged and divided up into separate components in order to be viewed
on the screen. Trying to display some drawings as graphics in slides may not
work. Instead they need to be provided as files for students to download and
view offline.
Much of the content
presented in an engineering course, as well as homework assignments, is likely
to involve equations with mathematical notation. Most learning systems cannot
fully display or process such notation. Instead documents can be produced using
the equation editor of MS Word and uploaded/downloaded as files. Alternatively,
faculty and students can use a document scanner (a capability of most
multipurpose printers) to convert handwritten documents into PDF files that can
then be uploaded/downloaded. For live sessions, faculty can use a graphics
table to write equations on the conference whiteboard.
The need to use detailed
drawings and equations often renders the quiz/exam functions of learning
systems unusable for engineering courses. Instead, tests and answers will need
to be handled as files to be uploaded/downloaded. Time limits can be placed on
when and how long the files are available. However, grading and grade entry
must be done manually which increases the workload for the instructor and
introduces more potential for variability and errors.
Most areas of engineering
make extensive use of software tools and many online courses include the use of
such tools (e.g., MatLab, MathCad, Maple, TKSolver, etc.). Students are
typically expected to figure out how to use these programs on their own in a
short timeframe at the beginning of a course. While most commercial software
comes with good documentation, demos, and technical support, learning how to
use the programs quickly can be frustrating for students. It is very helpful if
faculty provide detailed tutorials with lots of screen illustrations for
initial homework assignments.[2]
Even better is to review sample problems in live web conference sessions. Alas,
most faculty do not provide any additional help to students when they use
software tools; the typical attitude is “engineers are used to figuring things out.”
One aspect of engineering
education that is somewhat problematic for online courses is the need for
physical laboratory experiences. Most online programs have addressed this by
scheduling one or more on-campus sessions. However, the travel required for
such sessions is not popular with many students who may live a considerable
distance from the institution (e.g., on the other side of the country or
world). This issue is being addressed by the development of remote laboratories
that allow equipment control via the internet (e.g., Ammari, & Ben
Hadj Slama, 2006).
Training to teach online
Most institutions that offer
online programs provide some sort of training for faculty before they teach
their first online course. This training varies considerably in nature across
institutions. It is commonplace to offer such training via on-campus seminars.
While such training sessions may be better than nothing at all, they are very
limited in value. Effective training needs to be “hands-on”, i.e., conducted as
an online course. This ensures that they become familiar with the learning
system(s) being used. It also ensures that faculty experience online learning
first-hand and hence understand what it is like to be an online learner. It is
important that the online training take place over a long enough time period to
simulate the ongoing nature of an online course.
Table 2 outlines a typical
training course that I have conducted for faculty in different programs over
the years. These courses run 3-6 weeks and use the same learning system that
will be used for their online teaching.
Table 2.
Sample Faculty Online Training Course (4 week version)
|
Week 1 |
Understanding
the Delivery System |
|
|
Week 2 |
Nature of
Online Learning |
|
|
Week 3 |
Online
Teaching Strategies |
|
|
Week 4 |
Evaluating
Online Learning |
|
It’s worth noting that
online training courses are a good indicator of whether a faculty member will
be a successful online teacher. Faculty who fail to participate fully are not
likely to be good online teachers. Ideally, faculty who do poorly in an online
training course would be discouraged from teaching online; however, this is
unlikely to be politically acceptable. Instead, these instructors should be
flagged as needing additional assistance from the program team.
Online training courses for
engineering faculty do not need to differ in any way than those intended for
other faculty, apart from addressing the considerations associated with graphics
and equations noted earlier. Of course, engineers will perceive the training as
more relevant if they get to work with other engineers in the class.
Use of online resources
One aspect of online
teaching that should be exciting for both faculty and students is the use of online
resources for course materials. This includes current and historical articles
from online periodicals, standards and guidelines, as well as curriculum
materials that have already been created (e.g., the MIT open courseware initiative
at http://ocw.mit.edu, or the World Lecture
Hall at http://web.austin.utexas.edu/wlh
). Many companies that provide engineering software and equipment make technical
specifications, reports and examples available on their web sites. Most
engineering organizations make the proceedings of their conferences and
seminars available online.
Despite this wealth of
material, relatively few faculty make the effort to incorporate such online
resources in their courses. This seems somewhat incongruous since many faculty
make extensive use of such online resources in their research and professional
activities. There is no doubt that reviewing and evaluating such materials for use
in teaching requires more effort than assigning chapters from a textbook…and
faculty often choose the least effort route to course preparation. Faculty are sometimes concerned about
copyright issues associated with using material from online sources, although
there are usually none if the web site is public and the use is strictly for
teaching.
A strategy that does seem to
work is to have students find their own online resources. It is easy to set up
a homework assignment that requires each student to locate and describe an
online resource relevant to a given problem or issue. When the results are
posted in a discussion forum, students can benefit from reading the results of
each other’s findings.
Another good strategy is to
have students take advantage of library staff for online searches (if the
institution has such staff available). Most large university libraries include
engineering databases in their collection and these can be accessed remotely by
online students. Library research staff will usually assist students (and
faculty) to locate relevant documents on topics of interest.
Course development
One of the most difficult
aspects of preparing an online course is getting faculty to understand the need
to start development of a course well in advance (months) of its start date.
For traditional classes, most faculty seem content to prepare each class the
week before they teach it. Alas, this “just-in-time” model doesn’t work well
for online classes for a number of reasons. First of all, if the course
involves a physical textbook (as most still do), adequate time must be allowed
for the books to be purchased and delivered to students. Some course materials
may need copyright clearance which can take weeks. Any lesson notes developed
by the instructor need to be checked over by an editor or instructional
designer for completeness and accuracy. It is common to find incorrect
references, errors in equations, ambiguous assignment instructions, and missing
information that will confuse and frustrate students (and result in a flurry of
emails to the instructor for clarification). And the course must be created in
the learning system, including loading any files needed, setting up assignments
and discussion forums, as well as establishing the gradebook according to the
grading scheme. Course set up is usually done by an instructional designer,
although some faculty prefer to do this themselves.
Ideally course development
will begin the semester before the course is to be taught (see Table 3).
However, this requires that faculty make the time to work on the course during
this timeframe. This is unlikely to happen unless faculty have been given
released time from their teaching load, and/or provided with a stipend for this
purpose. Even so, most faculty will need a lot of encouragement to stick to a
development schedule and not leave all the effort till a few weeks before the
course begins (the default model). One strategy that can be used is to have
faculty participate in the online training course (discussed above) the
semester before they teach and have assignments tied to course preparation.
Table 3.
Major course development activities.
|
3 months before |
Prepare
course outline that specifies course materials needed (texts, software),
course objectives/goals, weekly lesson topics, grading scheme, and
pre-requisites |
|
1-3
months before |
Prepare
lesson outline that specifies reading assignments and activities/exercises
for each week/module |
|
1 month
before |
Prepare
lesson notes that provide any supplemental explanation needed. This may take
the form of PowerPoint slides to be shown in live sessions. |
|
1-2
weeks before |
Set up
course in learning system will all files, assignments, discussion forums,
quizzes/tests, gradebook. |
One aspect of online course
development that is a little unsettling to faculty is the need to work with a
number of individuals, such as an instructional designer, editor, IT support
staff, and a program director. Preparation of traditional courses tends to be a
solitary affair and involves little, if any, interaction with others. Faculty
often find working with a course development team to be a little confusing and
overwhelming. Consequently, one member of the team should be designated as the
primary point of contact for faculty who channels all other interactions.
Evaluating online courses
Because there are many ways
that online programs can go wrong, it is important to conduct extensive
evaluation activities to detect and correct problems. In addition, online
programs tend to invite a lot of scrutiny since they are different from the
status quo (i.e., conventional classroom instruction) and it’s valuable to have
data that attests to the effectiveness of the courses.
As a general rule, it is not
realistic to expect faculty to initiate or conduct any type of evaluation
activities (beyond what is specified in their grading schemes). So evaluation
activities will need to be developed and implemented by another member of the
program team, usually the instructional designer or the program director.
The core evaluation activity
should be the end of course evaluation survey that all students complete after
all course activities are finished. Usually the survey function of the learning
system can be used to deliver and score the evaluation. Table 4 lists some of
the items that are typically included in
the course evaluation.[3]
Some institutions may have a standardized course evaluation instrument that all
instructors are required to use. However, these evaluation surveys are often in
printed form (since they are intended to be handed out in classrooms) and they
do not usually address many of the issues that need to be assessed in an online
course. Therefore it may be necessary to ask students to complete two
evaluations.
Table 4.
Typical items included in an online course evaluation
|
Discussion
forums were valuable (if applicable) |
|
Live
sessions were valuable (if applicable) |
|
Software
used in course was valuable (if applicable) |
|
Course
was well organized |
|
Timely
and adequate feedback was provided on homework |
|
Textbook/readings
were worthwhile |
|
Course/lesson
notes were helpful |
|
Homework
assignments contributed to understanding the material |
|
Quizzes/tests
were fair assessments |
|
Course
workload was about right |
|
Course
difficulty was about right |
|
Pace of
the course was about right |
|
Amount of
material covered was about right |