936 Journal of Chemical Education Vol. 86 No. 8 August 200 www.JCE.DivCHED.org © Division of Chemical Education
In the Classroom
For many years ethical misconduct has been a long endured
and difficult to address issue in the scientific community. Profes-
sional ethics are not to be confused with morality because each
profession has an agreement with society (1). Scientists, in par-
ticular, can facilitate and shape progress and essential changes in
society. Scientific ethical misconduct and its cover-up are oen
not only disturbing and time consuming, it is also a barrier to
progress (2). As the 21st century continues to unfold, scientists
carry the burden of past judgment while looking for the solu-
tions for tomorrow.
Teaching Ethics in Science Courses
Roald Hoffmann, the 1981 Nobel Laureate in Chemistry,
uses his latest play Should’ve as a means to present the ethical
dimensions of science. Responding to a question of whether a
code of conduct was necessary he replied (3):
Yes, I believe that an ethical code of research is necessary, for
all scientists. Scientists are not born with ethics, nor is sci-
ence ethically neutral. I think courses in ethics, or better still,
discussion groups, based on case studies, should be part of
education of all scientists, and also that discussion should be
continued throughout life, even for experienced scientists.
As Hoffman states, ethics are not innate, and therefore
scientists, like any other professionals, cannot be expected to
react to situations of misconduct if they are unsure as to what
it really constitutes, especially in situations where misconduct
is hard to identify and address (3). When should scientific
ethics be taught, and how? Values, morality, and basic rules of
conduct are taught at an early age in contemporary society. As
professionals we should articulate as well as model the rules to
be followed from an early time. Undergraduate-level educators
are equipping future professionals, and therefore, are partly
responsible for students’ perceptions of scientific misconduct as
well as their understanding of the definition and consequences
of scientific misconduct and how to deal with it properly. Uni-
versities cannot rely on course content as the sole formative
professional development because, traditionally, ethics has not
been part of the curriculum (4). e Revised ACS Guidelines for
Undergraduate Chemistry Programs indicate the importance of
students conducting themselves ethically, and being aware of
the role of chemistry in contemporary societal and global issues
(5). ese new guidelines emphasize that the curriculum should
aid students in developing the ability to apply their knowledge
and skills to new situations and to transfer knowledge between
contexts. is confers responsibility to educators in equipping
students with the proper conduct guidelines (6–8).
Responding to the need for discussions of ethical miscon-
duct and other inquiries regarding professional growth and
formation of our students through the chemistry undergradu-
ate curriculum at the University of Puerto Rico–Río Piedras,
the organic chemistry course for chemistry majors has been
designed as a combination of different strategies to enrich the
teaching–learning process beyond course content. One of these
strategies includes an ethics discussion board. A special class
project was developed through the use of case studies. ese
have been proven as effective tools to teach ethics because stu-
dents can relate with situations presented in them (9–12). e
main goal of the project was to have students research and study
current ethical issues within the scientific community and to
then understand and discuss these issues. Other noncognitive
skills, also called for by the new proposed ACS Guidelines for
Undergraduate Chemistry Programs, were incorporated into the
project; these include oral and written communication skills as
well as document research and citation as dictated by the ACS
Style Guide chapter on citing references (13).
Methodology
Students enrolled in the organic chemistry course for chem-
istry majors during the 2006–2007 academic year were asked to
participate in defining, analyzing, and discussing a case of ethical
misconduct as a “special assignment in ethical misconduct in
science”, in the fall semester. e five cases shown in List 1 repre-
senting different ethics subject areas were chosen from the book
On Being a Scientist (14). ese cases can be grouped under a
single term, FFP (“falsification, fabrication, and plagiarism”),
known as misconduct.
Each case was assigned to two groups. Each group consisted
of three subgroups or teams of 4–6 students; one subgroup to
prepare a defense for the accused, one to serve as prosecutor,
and the third to serve as a jury. e jury was to render a verdict
on the case based on the arguments presented by the defense
and prosecution. Every group had to prepare an essay related
to their role in the case. (See the online supplement.) While
an introduction to the subject of ethical misconduct was given
at the beginning of the course, no specific class was dedicated
solely to project instructions and case discussion. Only specific
doubts were resolved during class; they were mostly posted and
answered either on Blackboard or via email. In addition to using
the online version of On Being a Scientist to view the case and
book discussions of the case, students were also provided with
online links on information about ethical misconduct and on
how to use ACS style for reference citation.
Student-Centered Use of Case Studies Incorporating Oral
and Writing Skills To Explore Scientific Ethical Misconduct
Ingrid Montes,* Adriana Padilla, Atenaida Maldonado, and Solymar Negretti
Department of Chemistry, University of Puerto Rico–Río Piedras, Río Piedras, PR 00931-3346; *imontes@uprrp.edu
Subjects
Conflict of interest
The allocation of credit
Publication and openness
Misconduct in science
Error and negligence in science
Cases
A Conflict of Interest
Credit Where Credit Is Due
Sharing of Research Materials
Fabrication in a Grant Application
Publication Practices
List 1. Ethics Topics and Corresponding Case Studies