Ethics for Industrial Engineering Undergraduates
Edward Pines
Department of Industrial Engineering
New Mexico State University
Las Cruces, NM 88003
epines@nmsu.edu
A large variety of teaching materials are available for engineering ethics. Often they take the form of cases and analysis. Ethical theory is presented as part of the analysis or as an introduction to the analysis. Frequently, however, undergraduates do not see how such matters relate to them. While cases are interesting of themselves, the students often have limited views as to how the case affects them or their career. Essentially, the market for their education and skills communicates a different message. Students may receive the message that a Ateam@ player gets ahead by doing what best benefits a firm=s management without regard to ethical treatment of workers or vendors.
Industrial engineering students often find themselves in a unique situation for engineers. They may be working for non-engineers in large organizations or accept positions in areas such as material or production control or supervision. Such assignments do however use their engineering education and skills. Additionally, there are now international standards for areas such as quality and many organizations now have international facilities bringing additional ethical issues. Given the potential ethical pressures on industrial engineers, it is conceivably even more critical that industrial engineering students are acquainted with ethical systems, decision making and an engineer=s responsibilities. Tasks such as job design, quality, ergonomics, safety, or vendor interaction can otherwise become an ethical quagmire.
Educating students on their ethical responsibilities can be a tricky process. In this paper, one recently begun approach is discussed. This approach uses cases dedicated toward industrial engineering problems such as work measurement, logistics, quality and other areas as part of a senior-level industrial engineering course.
Introduction
The
world of engineering ethics education offers a rich variety of texts, cases,
articles, and other teaching materials{1}.
Industrial engineering students encounter many ethical situations in the
real-world application of their education but often do not see their needs
addressed in ethics educational materials.
They address a set of situations that may be somewhat unique in the
engineering disciplines- they may frequently work for managers who are not
engineers, or may have non-engineering titles and deal, on a daily basis, with
workers and vendors. Thus, industrial
engineers face a unique set of ethical pressures from other engineers. Additionally, their ability to appeal to a professional
code of ethics may be limited by their employment--they are perceived as representatives of management. Yet, there is a clear need for an
understanding of ethical behavior and consequences of lapses. This paper argues that industrial engineering
students need to be much more aware of ethics and its practices since the pressures
on industrial engineers are significant and their roles are more ambiguous
within the organizational structure.
Frequently,
discussing spectacular cases of design, construction, or supervision such as
the Citicorp Center {2} or the Space Shuttle Challenger {3} can heighten
student interest in ethical issues.
While the ethical issues may be murky or misunderstood by students, the
case for application of the NSPE Code of Ethics or other appropriate codes of ethics
is completely clear. Such overriding
concerns as public safety and welfare are visible and imperative. Industrial engineering situations often do
not require a design responsibility or interaction with the public=s safety or welfare. Areas such as work measurement or quality do
present the industrial engineer with ethical issues in how she or he works with
managers, employees, and vendors. The
two-step interface between manager and engineer and then engineer and worker
can be a special area of interest, especially as work measurement directly
affects the worker=s pay, and potentially, continued employment. We are directly interested in misuse or
fraudulent use of industrial engineering or manipulation of industrial
engineers by their management here, not ethical application of industrial
engineering methods. One colloquial
phrase often heard, to Aput on your management hat,@ leads to an ambiguous
situation for the new industrial engineer or the one who seeks career
advancement. While the Space Shuttle
Challenger case dramatically illustrates this problem, such thinking is not
easily transferable to a more mundane product or process. The author remembers several instances from
his own industrial engineering career in which Adoing the right thing@ as would be understood in
ethical engineering was termed by colleagues and management instead to be a
sellout of the management team. In a
recent paper, Devon makes an excellent argument for a framework, not just
individual ethics. {4} This is a critical aspect of working in organizations
with shared responsibilities-the individual often cannot be ethical on her/his
own.
Laws
of the workplace, e.g., Fair Labor Standards, and new workplace initiatives
such as standards for social accountability such as SA 8000, quality, e.g., ISO
9000, or environmentally conscious manufacturing, e.g., ISO 14000, govern many
industrial engineering situations. The
industrial engineer must adapt. In this
paper, some areas of industrial engineering that may result in ethical issues
are discussed. Helping a student
develop a sense of how to address professional ethical issues while satisfying
their responsibilities to workers and to their employers is an important
challenge. An approach to acquaint
industrial engineering students with engineering ethics as well as business and
marketplace ethics is presented and some plans for an initial class are
discussed.
Approach
To
meet the needs of industrial engineering students, an approach based on the
diversity of career paths was developed.
Frequently, industrial engineering students take positions that do not
carry engineering titles or are not supervised by engineers. They may, in fact, be using their industrial
engineering degree as a credential demonstrating a level of academic
achievement. One common path is to take
a position as a production supervisor leading to a managerial career. In such cases, an awareness of engineering
ethics is of great importance. An employer
may be using the student=s industrial engineering degree while
expecting the new supervisor to Awear his/her management hat.@
Many
industrial engineers are responsible for large capital equipment budgets for
their employers. Computer-based equipment for manufacturing or logistics can be
quite costly and offer a variety of opportunities to study of ethical issues
such as vendor relationships or worker concerns. This is of special interest
in situations such as maquiladora industries where dual plant setups can
include multiple purchases of equipment.
One
issue of special note is the use of computer-based pacing of work. Traditionally, work measurement has been a
concern of industrial engineers. The Afair day=s work for a fair day=s pay@ concern has been a hallmark
of the industrial engineer. As work
becomes more computer-based, however, the opportunity for abuse becomes
greater. The use of computer-generated
statistics for jobs such as telephone customer support representatives can
become seductive by their apparent logic.
It is appropriate to caution students about the possibility of such
abuse. Any such system must be
maintained under ethical work measurement principles and with appropriate
ergonomic controls.
Total
quality management teams or concurrent design teams also provide a laboratory
for ethical behavior. Our alumni
frequently report that they are working on multinational teams coordinated
through e-mail, video, and phone.
Responsibility for decisions is then spread across borders. International operations are becoming more
important and, as has been seen on national television and newspapers,
standards for workplaces are highly country-specific. There can be significant differences between U.S. and other
country workplaces, work standards, and customs. Additionally, as more
international specifications such as ISO 9000 for quality management systems
become a part of business, ethical dilemmas can enter new areas.
Our
approach has taken the form of developing cases that serve the specific needs
of industrial engineering students and developing several exercises for an
industrial engineering capstone design class.
At New Mexico State University, the capstone design class is based on a
group consulting project for an industrial partner. As this work is mostly not an in-class activity, class time is
available for discussions of engineering ethics and business ethics.
This
approach presents engineering codes of ethics and methods for resolving ethical
problems. Following this, students are
asked to solve several existing cases that have a relationship to typical
industrial engineering problems such as vendor relationships or managerial
oversight. Interestingly, several
students complained that the cases seemed to be related to chemical or civil
engineering and not to industrial engineering and, therefore not really
salient.
The
next step will be to introduce cases that were developed in areas such as
quality control and international logistics. {5} They address specific issues industrial engineering students may
encounter in their career paths. Such
cases will be worked as group assignments and then discussed in class. Engineering is increasingly practiced in
teams making it appropriate to evaluate ethics cases in teams. Students then have an opportunity to see the
effects of their decisions on other team members and the workplace.
The
last step is a group exercise that addresses issues in work measurement.
Students will be asked to develop their own case study. This is an exercise that has been
successfully used in an ethics class as students to consider how to illustrate
or teach what they believe to be ethical and non-ethical behaviors. {6}
Students can find it is difficult to communicate successfully what they believe
is ethical behavior. Yet, as engineers
work in teams they must be able to evaluate ethical issues and act. Work measurement was chosen as a topic as it
is a typical entry-level engineering task.
Measuring work places the industrial engineers in an interesting ethical
zone- engineers are in-between management who may be hoping for lower costs and
workers who may already be working at an appropriate rate. Pressures from either side or an engineer=s wishes or goals may lead
to ethical dilemmas. When working as
part of a team, they made find pressures to maintain a team ethic. This exercise is intended to allow students
to consider these issues and how they might act.
Conclusions
Industrial engineering students encounter unique
ethical challenges that can be met with a creative response. This must be addressed in industrial engineering
programs. A framework that addresses
these problems is entirely possible and can be implemented in traditional
undergraduate courses. Such a framework
must consider career paths, team work, business and marketplace issues, and
international and legal concerns.
References
1. There are several texts, a variety of web sites, and numerous publications.
2. Goldstein, Stanley H. and Rubin, Robert A. (1996). AEngineering Ethics,@ Civil Engineering, October, 66(10), 41-44.
3. Harris, C. Edward and Rabins, Michael J. (1994). Introducing Ethics Case Studies Into Required Undergraduate Engineering Courses, NSF Grant #DIR-9012252, http://ethics.tamu.edu.
4. Devon, Richard. (1999). AToward a Social Ethics of Engineering: The Norms of Engagement,@ Journal of Engineering Education, 88(1), 87-92.
5. Valles-Rosales, Delia J., Pines, Edward, and Lambert, Brian K. (1999). ALearning about Ethics in International Logistics and Quality Control in Border Areas,@ 1999 NMSU College of Engineering Education Conference, Las Cruces, NM, April 8-9, 1999.
6. Pines, Edward. (1999). AEngineering Ethics: Learning From the Professional Engineer,@ 1999 ASEE Gulf Southwest Conference, Dallas, TX, March 7-9, 1999.
Acknowledgment: The support of the Engineering Information Foundation under grant number EIF 97.15 is gratefully acknowledged.