issues of Race/Ethnicity, Religion, and Complex Organizations. He also holds the Master of Arts degree in Religious Studies from the Catholic University of Louvain, Belgium. He has worked with the EPICS program as EPICS National Coordinator and as the teaching assistant in charge of developing materials on ethics and the social context of engineering for the program.Silvia Mah, University of California-San Diego Page 12.728.1© American Society for Engineering Education, 2007 Facilitating Multidisciplinary Teams in a Service-Learning EnvironmentAbstractToday’s engineers
. Page 11.757.42005 Workshop scheduleDate/Time ActivitySunday, July 10 6:00 PM Welcome ReceptionMonday, July 11 7:30 AM Breakfast/sign in 8:15 AM Opening remarks 8:30 AM Participants Program Survey 8:45 AM Participants Introduction 9:00 AM Courses 431 & 531 (Introduction to security) 10:30 AM Break 10:45 AM Courses 530 & 532 (Network security & Information warfare) 12:00 PM Lunch 1:00 PM Computer Security Camp 1:30 PM Course 535 (Steganography) 2:00 PM Course 534 (Ethics) 2:30 PM Course 537 (Wireless Security
management discussions, briefings on CE projects, technological Page 11.231.3 advances in the discipline, cutting edge research, lessons learned through a career in CE, introductions to advanced CE software, business practices, the role of a new CE graduate in a firm, preparing for job interviews, resume writing and opportunities in the CE field.2. Hold professional conduct meetings: A special meeting category exists to promote meetings that focus on ethics and issues concerning professional licensure. Often real cases are discussed, issues engineers face in the real world on a continual basis, as well as requirements and expectations on
ASCE’s prescribed Body ofKnowledge (BOK)1 learning outcomes. However, with a full third of the BOK’s prescribed learningoutcomes based on professional practice and communication skills, Civil Engineeringadministrators have begun to consider the interdisciplinary2 characteristics of the BOK.Among ten more technically-focused learning outcomes, the BOK entails that graduatesdemonstrate “(6) an understanding of professional and ethical responsibility, (7) an ability tocommunicate effectively, (8) the broad education necessary to understand the impact ofengineering solutions in a global and societal context, (9) a recognition of the need for, and anability to engage in, life-long learning,…[and] (15) an understanding of the role of the leader
will continually be adapting and learning as theyencounter rapidly changing technologies throughout the world and become cognizant of societal,economic and ethical issues. International design requirements will challenge engineeringstudents to understand other cultures and the ways their designs will affect multiple societies. Ifthese designs are developed with cross-cultural teams, there will be the added challenge ofmanaging various cultural dynamics. Page 12.872.2In 1994, the American Society for Engineering Education (ASEE) analyzed the changes neededfor engineering education.3 Their report stated that engineering education programs must
information, the basis for a price quote,equipment specifications, company profiles, standards compliance and a myriad of other types ofinformation. Throw in issues of ethics and determining the validity and reliability of sourcesamong the millions on the internet, information literacy becomes a critical instrument in thepractitioners toolbox. Yet few classes address practitioner's needs for broad informationresearch literacy skills.This paper details strategies for a student research project that new faculty may use to enhanceundergraduate technical research experiences in an information literacy context within anyengineering or engineering technology discipline. It leverages the internet plus the resources ofa well-endowed, or even a modestly
, American Society for Engineering Education”information, job titles and descriptions, graduate education, licenses or certifications, andprofessional society memberships. The 2002 RIT survey asked additional questions ontechnical skills and knowledge preparation, communication skills, and ethics education in theRIT ET programs for TC2K assessment. A copy of the 2002 RIT survey is provided in theappendix to this paper. Salary StudiesFigure 1. Comparison of RIT ET Graduates to 2002 EWC National Engineering Salaries RIT ET and EWC Salaries by Years Since Graduation 120 100
ethical codes ofconduct expected of and adhered to by the engineering profession. Following this introduction to Page 24.613.4ethics, classes were team taught by faculty in concert with practicing engineers from localindustry and government. Faculty shared their research experiences, while engineers fromindustry presented various projects and even ethical dilemmas they encountered in theworkplace.Engineers participating from industry were recruited via personal contacts made at conferencesand career fairs, telephone calls to local firms’ outreach departments, as well as being drawnfrom members of the College of Engineering’s industrial advisory
Paper ID #10525Challenging Students’ Values and Assumptions Through Project-Based Learn-ingDr. Diana Bairaktarova, The University of Oklahoma Diana Bairaktarova is an Assistant Professor of Engineering Practice in the College of Engineering, School of Aerospace and Mechanical Engineering at University of Oklahoma. Diana has over a decade of experience working as a Design Engineer. Her research is focused on human learning and engineering, i.e. understanding how individual differences and aptitudes affect interaction with mechanical objects, and how engineering students’ personality traits influence ethical decision-making
computer science bound students. The primary problem with the existing coursewas that instruction using Matlab, which is inherently procedural, was viewed as aninappropriate first programming experience for computer science and computer engineeringstudents, who will ultimately program in Java and C++, respectively. Moving directly into anobject-oriented programming (OOP) environment was desired.5,6Design of the new course involved faculty from all engineering departments, with computerscience and electrical & computer engineering being more involved since the primary changewas at their request. After considerable discussion a syllabus was arrived at that involves generalproblem solving, ethics (formerly engineering ethics, now expanded to
assignments that teach leadership skills without the students at first realizing this intent. Included are examples of assignments, how the assignments are integrated, rubrics used for assessing and evaluating student performance, and the courses in which the assignments are used.The ChallengeLeadership skills have traditionally fallen into the “soft skills” segment of engineering curriculaif they exist in it at all. One prevalent perspective suggests that leaders are born. Leadershipcannot be taught, only given the opportunity to flourish, says this perspective. Yet, both industryand academe call for professionals and graduates with greater team skills, communication skills,ethics training, life-long learning habits, and
solutions for environmental problems, and thetechnical nature of many of these issues require that a coherent environmental literacy courseinclude the social, economic, organizational, ethical and scientific dimensions. An activeproject-based approach to teaching such a course enables students to address the many issues inenvironmental decision making. Over the last decade we have developed such a course based ona systems approach that integrates disciplines while relying on pedagogy that involves active,participatory learning. This participatory learning is achieved in large part through the use ofdecision-making exercises. We assembled this curriculum so that teachers can adapt it for theircourses. In other words, we developed a text for teachers
economics of systems. Similar to computer science, a specialtopics course is also available. Ethics in engineering is also included to emphasize theimportance of ethics in the engineering of complex software systems.The curriculum includes a 3-credit hour capstone design and implementation project. The projectis a group project requiring that students work in teams to address the systems and softwareengineering aspects of the project. Page 25.1346.6 Table 1: MSSE degree program with systems and software engineering focus CORE COURSES (12 Hours) CS 5373 Software Modeling and Architecture. This course introduces the theory
: • It goes beyond ‘green engineering’ to discuss ethics, diverse cultural critiques of technology, and the politics of technology. • It is a technical elective and requires a significant group design project. • It qualifies as a ‘Diversity-Focused’ course and considers three specific cultural groups and their attitudes toward technology: feminists, the Amish, and Native Americans. • It makes use of collaborative groups throughout the course and requires considerable writing and speaking assignments.BACKGROUNDThe course evolved from several other courses taught by the author since 1984, including anIntroduction to Energy Technology course which made use of Jeremy Rifkin’s
, colleagues and peers? Are theybeyond reproach? In our view, bad practice in the context of this paper is that which perpetuatesthe technical rationality myth and not only ignores, but also discounts the existence of any othermodus operandi. We also consider poor models to be those who perform actions which areincompatible with substantive and process principles of sustainability. We have no intention ofidentifying particular individuals; instead we include some stories and a series of untraceableanecdotes and we are sure you could add some from your own experience. When asking for feedback on preparations for an interactive session with chemical and environmental undergraduate engineering students on professional ethics, the lecturer was
individual values into a netaggregate public value. We discuss an important limitation of this approach, namely thatassessing the “value of a sunset” may be biased for those who are visually impaired, colorblind,or photosensitive. This work highlights the convergent approach known as the nurse+engineer,where transdisciplinary integration across two diverse professions is used to solve a pressingsocietal challenge, in this case a more inclusive meaning of public value constructed from acollection of individual values expressed by individual people in response to the question, “whatis the value of a sunset”.IntroductionLicensed, professional civil engineers have an ethical obligation to protect the health, safety, andwelfare of the public [1]. But how
command for complaints. Students also are informed about resources and agencies affiliated with LSU who are available to support them should they face an academic dilemma.Career Development WorkshopsThe career development workshops were professional development oriented including fourworkshops based on the National Association of Colleges and Employers (NACE) competencies,and practical resume writing, and an ethics workshop. Each workshop was assessed for learningoutcomes and perceived value.Teamwork and Communications WorkshopThe teamwork and communication workshop teaches basic skills of workplace teamwork andcommunication aligned to the NACE competencies. Information in the workshop includedstages of team development, writing
Paper ID #42754Board 360: Reflections from Graduates on the Impact of Engineers WithoutBorders USA Experiences on Professional PreparationLazlo Stepback, Purdue University, West Lafayette Lazlo Stepback is a PhD student in Engineering Education at Purdue University. His current research interests focus on engineering ethics, the connections between personal morals and professional ethics, and how students ethically develop as engineers. He earned a B.S. in Chemical and Biochemical Engineering at the Colorado School of Mines (Golden, CO) in 2020.Paul A. Leidig P.E., Purdue University, West Lafayette Paul A. Leidig works in
towards JEDI in engineering practices. Particularly, students will learn about the historical temporal dimension of engineering and social justice through a series of case studies, recognizing that the impacts of engineering span multiple generations, irrespective of whether these effects are positive or negative. This realization will empower students with a sense of continuity and a need for collective efforts, it will enable them to break the barriers of individual accountability, micro-ethics, and direct causality commonly established in engineering practice [17]. This mindset shift acknowledges the need for continued social justice work beyond individual lifetimes, fostering a sense of interconnectedness and
AC 2011-550: REFLECTIVE JOURNALING ON A SYSTEMS APPROACHTO VEHICLE DESIGNJanet Braun, Western Washington University Page 22.1231.1 c American Society for Engineering Education, 2011 Reflective Journaling on a Systems Approach to Vehicle DesignAbstractSoft skills, such as the ability to function effectively on teams, to communicate effectively, toengage in lifelong learning, and to understand professional, ethical and social responsibilities, arerequired outcomes for ABET accredited Engineering Technology Programs. Input from industryadvisory councils and feedback from employed alumni agree that these skills are crucial
the plan itself.Assessment of student outcomes represents a significant portion of the plan, and much ofits development occurred in the summer of 1997. At that time, a sub-team of CASO washired for the summer to devote particular attention to student outcomes assessment forthe plan. The goal for student outcomes is: Instill in our graduates the skillsappropriate to their professions and lifelong learning. There are nine subgoals thatfurther specify these skills: ethics, teams, communication, global awareness, experiments,design, engineering practice, interpreting data, and contemporary issues. Each of theseskills has multiple, specific performance criteria that give the skill definition. While weknew the skills we wanted students to possess
, legal, and social issues surrounding the use of information, and access and use information ethically and legally7In addition, the ACRL Science and Technology Section (STS)’s ‘flavor’ of information literacystandards8 also maintains that a student ‘…understands that information literacy is an ongoingprocess and an important component of lifelong learning and recognizes the need to keep currentregarding new developments in his or her field.’Viewed from the perspective of lifelong learning, the ability to ‘determine the extent ofinformation needed,’ corresponds to articulating a ‘learning need’. ‘Access[ing] the neededinformation’ and ‘using information effectively to accomplish a specific purpose’ fits within theframework of developing
Outcomes3 (The rating scale is 1=poor, 3=acceptable, to 5=excellent) Desired Accreditation Outcome On-Campus Off-Campus Multidisciplinary team and topic 2.91 4.14 Evidence of ability to engage in life-long 2.99 4.14 learning Understand impact of engineering on society 2.45 3.33 Knowledge of contemporary issues 3.06 3.68 Understanding of professional and ethical 2.17 2.79 responsibility Figure 1 illustrates that overall project quality for global projects significantly exceeds that for on-campus
American Society for Engineering Education Annual Conference and Exposition Copyright © 2005, American Society for Engineering Education30 years. Mr. Law was given access to the course through a fictitious student and could monitorcourse progress and provide advice to the faculty and students from his west coast office. Healso made several visits to the class during the semester and sat as one of the panelists for someof the presentations.Professionalism and Ethics - Rather than the traditional student-teacher relationship, theapproach taken since the spring 2001 semester was a professional one. For all activities exceptthe presentations, the course instructors played the role of principals in the firm. The
complete the BSSE program at Monmouth University must havedemonstrated: a) an ability to apply knowledge of mathematics, science and engineering b) an ability to design and conduct experiments, as well as to analyze and interpret data c) an ability to design a software system, component or process to meet desired needs d) an ability to function on multi-disciplinary teams e) an ability to identify, formulate, and solve software engineering problems f) an understanding of professional and ethical responsibility g) an ability to communicate effectively h) the broad education necessary to understand the impact of software engineering solutions in a global and societal context i) a recognition of the
broad acceptance of RE in the software industry today isthe widespread belief that major effort in software development lies in programming and testing.Our students have similar perceptions and beliefs and like some seasoned practitioners, aremore interested in “how” to solve problems instead of discovering “what” to solve, i.e.gathering the requirements. This paper details how working on “real” industrial projects withexternal clients for the first time in unfamiliar domains, spending an entire term writingdocuments (instead of programming), being cognizant of ethical issues, and having to deal withambiguous and conflicting customer requirements made this course very different andchallenging for students. The challenges faced by the instructor
,generally a PhD in Engineering, and a teaching fellow, generally a high school science teacher, closelywork with students to pedagogically inculcate basics of core engineering disciplines such as civil,mechanical, electrical, materials, and chemical engineering. EI values independent problem-solving skillsand simultaneously promotes team spirit among students. A number of crucial engineering aspects suchas professional ethics, communication, technical writing, and understanding of common engineeringprinciples are instilled in high school students via well-designed individual and group activities. Thispaper discusses the model of the EI program and its impact on students learning and their preparation forthe engineering career.Introduction: Shortage
within oneself while also seeking feedback from others);use for electronic portfolios in undergraduate engineering 5. Identify and discern one’s own and others' perspectivesprograms. Likewise, experiential learning can provide (i.e., the ability to recognize the limitations of one’smethods for assessment of several other ABET outcomes, perspective and seek out and value the perspectives of others);including (d) the ability to function on multidisciplinary 6. Develop a professional digital identity (i.e., the ability toteams, (f) an understanding of professional and ethical imagine how one will use current knowledge and skills inresponsibility, and (k) an ability to use the techniques
2015 ASEE Zone III Conference (Gulf Southwest – Midwest – North Midwest Sections) Building and Assessing a Hands-on Learning Experience for Robots in Business and Society Timothy Burg1, Pamela Mack2, Ian Walker2, Richard Groff2 1 Kansas State University,2Clemson UniversityAbstractAn undergraduate course is being developed for non-engineering majors to address the need forgeneral competencies in ethics, science, and technology. Robotics is a field of science that israpidly transforming our lives. Participants in the course will learn the history, mechanics andsoftware, and
experience.One goal is to provide students a service-learning design experience situated in the developingworld so they can explore the technical, economical, environmental and social implications of Page 12.944.3engineering design and construction. 2A second goal is to afford students a cross-cultural learning experience, that is, to prepareengineering students for ethical, reflective, quality service to diverse communities anddemonstrate that social responsibilities of engineers are fundamentally important and addressreal facets of sustainable engineering