forcomputing programs includes the following requirement: “An ability to understand ethical andprofessional responsibilities and the impact of technical and/or scientific solutions in global,economic, environmental, and societal contexts.” Ethics has been part of the ABET requiredoutcomes since 2004, with the 2019-2020 criteria including ethics into Criterion 5; Curriculum:“The curriculum must combine technical, professional and general education components insupport of student outcomes.” and “The discipline specific content of the curriculum must focuson the applied aspects of science and engineering and must E. Include topics related toprofessional responsibilities, ethical responsibilities, respect for diversity, and quality andcontinuous
;M University. His research interests include semiconductor testing and validation, as well as hardware cybersecurity. Miles is a teaching assistant in the Department of Engineering Technology and Industrial Distribution, assisting with engineering leadership, semiconductor testing, and semiconductor validation classes. His experience facilitating lab sections for the engineering leadership class has allowed him to gain insights into students’ beliefs about generative artificial intelligence and its future role in engineering leadership and higher education. ©American Society for Engineering Education, 2024 Exploration of Career and Ethical Challenges of Analytics and
general higher education in the country. Compared with developedcountries, the number of engineering graduates in China is also dozens of times higher. However,the so-called "strong" not only means an advantage in quantity, but also requires an increase invalue [1]. China's engineering ethics education started relatively later. The "Engineering EthicsResearch" conducted by Southwest Jiaotong University in 1998 represented the first attentionpaid by Chinese universities to engineering ethics, and the research results were ultimatelytransformed into China's first engineering ethics characteristic textbook. The official birth markcan be traced back to 2000, when various universities established elective courses. In 2007,Zhejiang University, a
[6] for use in business education, toemphasize self-awareness and individual ethical decision making (learning goals 3, 4, 5, and 7).The third, and final, component to the course incorporates student interest in exploring currenttopics in engineering ethics (learning goals 5, 6, and 7). While the topics included in the thirdmodule depend on the interests of the instructor and the students, a small sample of these topicsincludes: genetic engineering, IVF, surrogacy, weapons of mass destruction, nuclear power, dataethics, ethical algorithms, self-driving vehicles, autonomous weapons, lying and deception inengineering, and techno-ableism. Each module builds knowledge, understanding, confidence,and practice for professional skills. The following
Paper ID #43260The Development of a Student Survey on Macroethics in Aerospace Engineering[Work-In-Progress]Dr. Corin L. Bowen, California State University, Los Angeles Corin (Corey) Bowen is an Assistant Professor of Engineering Education, housed in the Department of Civil Engineering at California State University - Los Angeles. Her engineering education research focuses on structural oppression in engineering systems, organizing for equitable change, and developing an agenda of Engineering for the Common Good. She teaches structural mechanics and sociotechnical topics in engineering education and practice. Corey
-created by a dedicated working group of educators fromdiverse higher education institutions: from new unconventional universities to traditionallong-standing establishments and practicing engineers from various industries and businesses.The current toolkit content comprises of guidance, teaching resources (case studies andlinked activities), an interactive curriculum map, and descriptions of practice. The toolkit waslaunched in February 2022 and the first steps of an impact assessment on the project areunderway. Feeding into this assessment is metadata on the use of the website and toolkit,which is continually being collated. This includes collecting geographical and temporal datato identify regional interests in ethical topics and frequency of
is considerable work that is still needed to prepare engineering graduates to be ethicalengineers and ethical leaders in their professional environments. This study is intended to bringawareness to what engineering ethics education should continue and improve. The results offerinsight into the critical topics that society’s future engineers might not have mastered. It is hopedthat engineering ethics educators are given the guidance to incorporate concepts in theirclassrooms like emotions— the least covered topic but something every engineer has and needsto learn how to manage.VI. LIMITATIONS & FUTURE WORKThese papers and our findings targeted general engineering ethics textbooks rather thanprofessional engineering ethics textbooks or
of engineers in business settings through education and science & technology policy. She received her Ph.D. in Engineering Education at Purdue University (2022) and received her B.S. and M.S. in Chemical Engineering at Yonsei University (2017) and Purdue University (2021) respectively. She received the 2022 Christine Mirzayan Science & Technology Policy Graduate Fellowship from the National Academies of Sciences, Engineering, and Medicine and the 2022 College of Engineering Outstanding Research Award from Purdue University.Dr. Diana Bairaktarova, Virginia Polytechnic Institute and State University Dr. Diana Bairaktarova is an Assistant Professor in the Department of Engineering Education at Virginia Tech
. She was named Outstanding Graduate Student in HES. Gibson earned her B.S. in Biological/Agricultural Engineering and minor in Sustainability from the University of Arkansas, along with a B.A. in Spanish Language. In addition, Gibson served as a Fulbright-Garc´ıa Robles Scholar in Mexico. ©American Society for Engineering Education, 2024 Instilling Cultural, Ethical, Social, and Environmental Responsibility in Engineering Education and Practice – The National Academies’ CESER Advisory CommitteeintroductionThis work-in-progress paper describes a nascent initiative that the National Academy ofEngineering (NAE)—a component of the U.S. National Academies of Sciences
, engineering systems & computing, environmental,mechanical and water resources. Incoming students also have the option to pursue an engineeringdegree without declaring a major for the first few semesters of their education. All first-yearundergraduate engineering students are required to take ENGG*1100 – Engineering and Design I,an introductory course to engineering design and the engineering profession. In the fall of 2019,there were 381 engineering students registered in the course. Historically, it has been a challengeto engage students in professional skills topics such as engineering ethics due to the competingactivities of the design aspects of the course. To increase student engagement and learning withoutexcessive demands on their
thepotential participants, which might have impacted their willingness to participate and shapedtheir expectations of the questions they would be asked and, therefore, the topics they had inmind before participating in the interview. Second, many of the respondents had a background incivil engineering and related disciplines which might have influenced the kind of ethical andequity-related dilemmas they encountered.ImplicationsThe findings of this study can inform engineering educators regarding the kinds of issues early-career engineers encounter when it comes to ethics and equity. Based on the findings from thisstudy, case studies can be developed for use in engineering courses. Moreover, the findings ofthis study can help organizations understand
argue a for the generaleducation requirements for a college education, the training can sometimes be abstract and can stayin the thought realm alone. This was certainly my experience with ethics coursework, a great of dealof thought and writing but not a clear picture of how to then take that and apply it to the profession.My conversations with students, as well as studies [16] has indicated that most students do not makea connection between what they learned in the ethics course and how they would apply that learningto the profession. This is of course a challenge with all general non-major education requirementswhere different students disengage with different aspects of the curriculum. Even those who stronglyengage with and enjoy non-major
, the Engineering Accreditation Commission of ABET requires thatall ABET-accredited programs demonstrate their graduates have attained seven StudentOutcomes shown below (ABET, 2024). The four Student Outcomes in bold showcase theimportance of personal and professional development (e.g. educating the whole engineer)beyond the three technical Student Outcomes (e.g. 1, 2, and 6). ABET’s holistic approach toeducating the next generation of graduates showcases the connectedness and intertwinednecessity of bringing technical education and professional education together. 1. an ability to identify, formulate, and solve complex engineering problems by applying principles of engineering, science, and mathematics. 2. an ability to apply engineering
decision-making Leadership Formal and informal leaders, the organization’s expectations of themAlthough there are many definitions and frameworks related to organizational culture, [14] wasselected since it is situated in the university setting.MethodsStudy OverviewThe present study is part of a larger project that explored ethics and societal impacts education inengineering and computing. The aim of the mixed-methods project was to identify potentialexemplars of ethics and societal impacts instruction, including their context and impact onundergraduate students and recent graduates. The first phase of the project was quantitative, andover 1400 educators responded to an online survey. More information on the surveydevelopment and results is
adopting different ethical topics and pedagogicsthan most other ethics-teaching educators they surveyed (n = 1159). Their data, however, showedthat there was more disagreement than consensus among research participants with respect to theoverall effectiveness of the 35 potential exemplars and the extent to which participants would bepersonally interested in using them, making the researchers acknowledge that there will unlikelyever be a “‘one size fits all’ approach” to ethics education. While faculty in general agree thatengineering ethics should be incorporated into multiple courses in the curriculum, those whoteach traditional, more technical courses are less likely to think that ethics should be taught intheir own courses [29, p. 15], despite
Paper ID #37363To Construct the Curriculum Effect Evaluation System of EngineeringEthics Education Based on the Kirkpatrick’s Evaluation ModelDr. Jiaojiao Fu, Peking University Jiaojiao Fu is a postdoctor at the Graduate School of Education, Peking University, Beijing, China. She received B.A. from China Agricultural University, M.Ed. and Ph.D. from Beihang University, China. From April 2017 to October 2017, she studied in the College of Engineering at the Ohio State University as a visiting scholar. Her academic and research interests include engineering ethics education, ethics of artificial intelligence, lifelong
better engage with engineering ethics and feel a better sense of ownership and a clearerunderstanding of their future responsibilities towards ethics in daily decision making. Weleverage discussion, teamwork, guided questions, role playing and decision making games to helpstudents engage with seemingly esoteric topics. We help students build and employ their ownframeworks, vocabulary and sense of rubric for tackling simple decisions, while also consideringtheir potential ethical connotations and implications. Throughout this entire process, we werecareful to employ student participation and feedback at all stages, allowing for a stronglystudent-driven approach. Students explored ethical education of engineers and developed digitallearning tools
Science & Technology Policy Graduate Fellowship from the National Academies of Sciences, Engineering, and Medicine and the 2022 College of Engineering Outstanding Research Award from Purdue University. ©American Society for Engineering Education, 2024 Exploring the Influence of Identity Development on Public Policy Career Pathways for EngineersAbstractWith emerging technologies getting in the hands of the public at ever-increasing speeds,technology policymaking has become the primary means of regulating it. This means moreindividuals capable of understanding their nuances and conveying the information to the massesare required. Ethical governance of these advancements is best
certificate programs, and 19 are graduate-level degreeprograms. Among the 21 engineering programs identified, 5 are classified as independentmobility engineering programs because they explicitly specify mobility in their program titles.The rest of these programs are classified as non-independent mobility engineering programs.Even though they have mobility knowledge covered, they are rooted in traditional engineeringprograms, such as transportation engineering (11), autonomous engineering (2), informationsystem engineering (2), and mechanical engineering (1).To get a deeper understanding of the subjects covered, detailed coursework and topics in theidentified mobility engineering educational programs were also reviewed. A total of 72 corecourses were
exemplars of engineering students.Dr. Stephanie Claussen, San Francisco State University Stephanie Claussen is an Assistant Professor in the School of Engineering at San Francisco State University. She previously spent eight years as a Teaching Professor in the Engineering, Design, and Society Division and the Electrical Engineering Departments at the Colorado School of Mines. She holds a B.S. in electrical engineering from MIT and a M.S. and Ph.D in electrical engineering with a Ph.D. minor in education from Stanford University. ©American Society for Engineering Education, 2024 Using Moral Exemplars to Explore Engineering Students’ Ethical
in this study: “What is theaccuracy of the codes generated from an NLP approach that uses a transformer-based languagemodel and a k-Nearest Neighbors matching method to qualitatively analyze students’ responsesto an open-ended question prompt of an ethics case scenario?”Background and MotivationIn this section, first, we share existing ethics assessment instruments used in engineeringeducation. Next, we summarize methods of case-based instruction in engineering ethicseducation literature. Finally, we discuss use of NLP in education assessment generally.Student Outcomes and Assessment Methods in Engineering Ethics EducationFor accreditation of an undergraduate engineering program, ABET has included ethics in itscriteria (3-4) “an ability to
graduate of Dayton Public Schools. Dr. Long has a B.S. and M.S. in Mechanical Engineering from Wright State University and Ohio State University. He also has a Ph.D. in STEM (Engineering) Education from Ohio State. Dr. Long has interned with Toyota and he owns a small education-based company. For more details see: leroylongiii.comJenna Korentsides, Embry-Riddle Aeronautical University - Daytona Beach Jenna Korentsides is a Ph.D. student in the Human Factors department at Embry-Riddle Aeronautical University in Daytona Beach, FL. Jenna works under the advisement of Dr. Joseph R. Keebler in the Small Teams Analog Research lab where she studies various topics including team performance and training across domains including
Gulf conflict, in support of the Global War on Terrorism in Iraq, and during peace enforcement operations in Bosnia-Herzegovina. He was awarded three Bronze Star Medals for leadership and service during wartime operations. He earned his commission through ROTC and was a Distinguished Military Graduate, He is a graduate of the U.S. Army Ranger School and the U.S. Army Command and General Staff College. He earned a M.S. in leadership development and counseling from Long Island University and a B.A. in psychology from Boston University. He is a member of the American Society of Engineering Education (ASEE). Leo is an avid hiker, and when not at work can usually be found on a New Hampshire White Mountains high
. ©American Society for Engineering Education, 2023Character Development in the Engineering Classroom: An Exploratory, Mixed-Methods Investigation of Student PerspectivesI. IntroductionEthics education is an undisputedly essential part of engineering education. Society, industry,universities, and accreditation demand that engineering students be better educated to handle themany ethical situations that professional practice will require of our graduates. Whileengineering educators continue to explore how to most effectively prepare students for complexand nuanced ethical decision-making in their professional careers [1] – [8], traditionalapproaches to engineering ethics education have been largely limited to ethical reasoning guidedby
12students. Differing curricular and professional development expectations of undergraduate andgraduate students create differing opportunities as well as values related to the discussion andinstruction of ethics content. Specifically, the structure of undergraduate education lends itself tomore opportunity for generalized, large-group discussion of ethics in courses. Whereas, thementoring relationship present in graduate education makes individual conversation of ethicslikely to arise in small higher-level seminars or at the point of research participation in the lab.Multiple of our faculty interviewees state that the majority of graduate students’ ethicalknowledge comes from their time working in a lab. This implies that the lab setting may be
consists of two cases and four questions related tothe cases. Case-based scale is also widely used by other engineering ethics educators.This part mainly tests the goal of engineering ethics ability level. Two classical casesare selected from classical textbooks at home and abroad. Four short answerdiscussion topics are designed from role conflict, identification of ethical dilemmasand contradictions, interest balancing, multi-perspective analysis of possibleconsequences, and proposed solutions to ethical dilemmas. As in the second part, thecases and questions selected were the same in the different versions of thequestionnaire.Cases of engineering ethics education generally come from two approaches: one is toselect existing cases in textbooks at
wouldcollaborate with other students. These results led to four conclusions: 1) ethically, the use oftools such as ChatGPT without acknowledging that they have been used is cheating, 2) it will beimpossible to stop students from using tools like ChatGPT, but unacknowledged use can bedetected, albeit with a very high percentage of false positives, 3) use of AI tools should beencouraged rather than discouraged, and 4) higher education should focus on new methods andmechanisms for assessing student learning that take advantage of the AI tools.IntroductionArtificial Intelligence (AI) has made enormous strides during the past few years. It has becomepossible for AI to provide answers to essay questions on exams, generate good discussion boardposts in online
-experts - what would be needed toequip others with appropriate knowledge to anticipate and resolve ethical challenges 8 - was notcharacterized with any consensus by the participants but is necessary to explore in order todetermine the feasibility and value of educating the workforce and inviting further dialogue.While engineering ethics research was only occasionally discussed at the workshop, participantsnoted that engineering ethics has evolved over the past few decades 9 into a required topic forundergraduate or graduate engineering students at some engineering schools along with other4 To re-iterate, NASA’s report was clear that the experts cited in the report represented theirpersonal views, and claims about particular ethical challenges do
that there were numerous approaches toethics education which varied from simple in class exercises to dedicated engineering ethicscourses [10]. The most common approach was the case study. In a general construct, the casestudy presents a background on the circumstances of the situation (ethical dilemma), how theparties acted and the consequences of the actions. The study also presents a hierarchy ofparticipants so that ethical codes can be applied to the solution [10], [9], [11]. The beauty ofthis approach is that there is a prescriptive way to approach an ethics class that is familiar toinstructors. This approach prepares the engineer for the engineering ethics portion of thefundamentals of engineering exam (FE) and the professional
Paper ID #39322Recognizing Principles of AI Ethics through a Role-Play Case Study onAgricultureMr. Ashish Hingle, George Mason University Ashish Hingle (he/him) is a Ph.D. student in the College of Engineering and Computing at George Ma- son University. His research interests include technology ethics, interactions and networking in online communities, and student efficacy challenges in higher education. He received his bachelor’s degree in Information Systems and master’s degree in Information Assurance (Cybersecurity – Forensics – Audit) from sunny Cal Poly Pomona.Dr. Aditya Johri, George Mason University Aditya Johri