,economic, and ethical issues [9].We are in the third year of reforming ECEN’s standard, one semester course in EM into a twocourse sequence, VECTOR. The first, required course will be designed for all ECEN studentsand focus on concepts and applications of E&M to ensure relevance. The second elective course,designed for students pursuing further study in this area, will link concepts to analytical andnumerical solution techniques.The first course, ECEN3613, is built around three case study modules in which students play therole of design engineers researching technologies to be used in the design of a wireless robotcontroller. The three case studies focus on design of three subsystems of the controller whichreflect three basic conceptual areas
address issues of sustainability and international development is to introduce newrequirements/outcomes into the curriculum. Or they can take existing outcomes and mold theeducational methods used to achieve these outcomes, in such a manner so that sustainability andinternational development engineering problems are addressed. ABET has established a list ofprogram outcomes under Criterion 3: Program Outcomes and Assessment for accreditingengineering programs. Outcomes “3c,” “3f,” “3h,” and “3j” c. an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability
√ √ √ Operations Management 33 Supplier Relationship Management √ √ √ Supply Chain Management 34 Customer Relationship Management √ √ √ Supply Chain Management 35 Global Business Dynamics √ √ √ Introduction to Global Issues 36 Intercultural Relations √ √ √ Global & Intercultural Connections 37 International Trade Laws √ √ √ Introduction to Global Issues 38 Business Laws √ √ √ Introduction to Global Issues 39 Business Ethics √ √ √ Ethical Issues 40 Purchasing
hardware and software, wired and wireless network communication, engineering design, advanced PC operating systems, internet technologies and computer programming. (a,c,d) 3. Graduates possess effective communication skills in oral, written, visual and graphic modes for interpersonal, team, and group environments. (e,g) 4. Graduates have appreciation for the responsibility of the contemporary engineering technologist by demonstrating professionalism and ethics including a commitment to utmost performance quality and timeliness, respect for diversity, awareness of international issues, and commitment to continuing professional development throughout their careers. (h,j,k)Program Outcomes(Numbers
Results (2-25/25, 1-24/25), (1-25/25, 1-21/25, 1-20/25), (1-25/25, 1-22/25, 1-21/25).Quantitative assessment was accomplished through an examination. Three exam questions evaluated several aspects of Laplace and Fourier Transforms. Exam results (2-60/60, 1-54/60) CO-8: Understand and use data acquisition hardware and software The use of Dataq® data acquisition or similar devices was required to make permanent recordings if the laboratory experimental data. There was no specific quantitative evaluation method required. Ethics Component: The primary ethical component encountered in this class is to note that calibration statistics must represent the true behavior of the device, even if it points out some shortcomings in the design. Calibration
totinkering and technical characteristics corresponded to Criterion 3 outcomes. There was notmuch correspondence, however, to the soft outcomes such as Criterion 3 (f), an understanding ofprofessional and ethical responsibility and Criterion 3 (d), an ability to function onmultidisciplinary teams. The lack of correspondence indicates that the soft outcomes do notappear to be explicitly incorporated with tinkering and technical activities, thinking processes, ordecision making processes of students, faculty and practicing engineers. Additionally, themesrepresenting curiosity and creativity, which were of the utmost importance to engineers, with aranking as first and second as tinkering characteristics, do not appear in the Criterion 3 a-koutcomes
insured? As engineering and construction professionals respond tostructural failures of this nature, so do educators prepare to educate students to improve thepractical aspects of engineering design and construction practices? To avoid future constructionfailures, educators have an ethical responsibility of educating students in modes and causes ofstructural failures, and the responsibilities for failures. This paper addresses lessons learned fromfailures of the past, such as, the very recent Boston’s Big Dig Failure, the 1981 Collapse ofKansas City Hyatt Regency Hotel Skywalks, the 1978 Formwork Failure on West Virginia’sPower Plant Cooling Tower, and a few other structural failures, and how such lessons can beincorporated in the classroom to
f on waste, w the seecond encourraged studennts to explore an [8]idea brouught forth by y Cynthia Baarnett whicch she termeed a “water eethic”. In new winterdisciiplinary grou ups, studentss were askedd to create twwo deliverabbles that thouughtfullyinvestigaated how a water w ethic might m be inspired in the loocal commuunity. The deeliverables w weresimilar to o the first deesign challen nge in that twwo visual reppresentationss were expeccted. First, anndslightly different d from m the
, Whiting, & Shaeiwitz, Analysis, Synthesis, and Design of Chemical Page 23.675.8 Processes, Prentice Hall, 2012 Ulrich, Product Design and Development, McGraw Hill, 2011Figure 7 illustrates the distribution of adoption of capstone design texts reported by surveyrespondents.The use of textbooks amongst instructors is diverse. Some rely on personal experience and usetexts as reference material (if at all). Others seek more case studies, details on methodologies(especially heuristics), and more coverage of ethics, safety, and environment. 25 Number of respondents 20
feel strongly thatthey are helping the communities and that their experiences could change the type of volunteerwork some students pursue in the future.IntroductionTo be fully prepared for a professional career in the engineering field requires students todevelop different types of skills. According to ABET, engineering baccalaureate graduatesshould possess a set of five “hard” skills and a set of six professional skills3,4,5. The professionalskills, outlined below, are skills that employers desire from engineering professionals.(1) an ability to function on multidisciplinary teams(2) an understanding of professional and ethical responsibility(3) an ability to communicate effectively(4) the broad education necessary to understand the impact of
knowledge of mathematics, science, and engineering • Ability to analyze and interpret data • Ability to design system, and process to meet the desired needs with realistic constraints such economic, environmental, social, health and safety, and sustainability • Ability to work in multidisciplinary teams • Knowledge of the current issues • Understanding professional and ethical responsibilityThe Governors program is a five week residential program and the engineering focus areadirectly hits on various ABET outcomes, that most of the engineering curriculum is designedupon.IntroductionThe Governor's Scholars Program is a summer residential program for outstanding high schoolstudents in Kentucky who are rising seniors. The Program
- Page 24.31.1 proaches to engineering education such as ethics of care, humanistic education, and spirituality. He holds a B.S. in Industrial Engineering and a M.Ed. specializing in math education and has worked as an engi- neer, a pastor, and a high school math teacher. c American Society for Engineering Education, 2014 Paper ID #10980Mrs. Corey A Mathis, Purdue University, West Lafayette Corey A. Mathis earned her B.S. in biology and her M.E.D. in secondary education from Northern Arizona University. Prior to returning to school to obtain a PhD in engineering education at Purdue University
, natural resources, wastemanagement, energy efficiency and pollution control, as well as associated ethics and politics.Finally, a calculus-based course in conservation principles has been adopted to allow forexpanded study in Newtonian physics, electricity, thermodynamics, and electromagnetism, thesetopics being especially critical to the understanding of many renewable and alternative energytechnologies.The conservation principles course is based in the conservation laws of mass, energy, charge andmomentum. Students apply fundamental engineering concepts to problems in statics, dynamics,fluid mechanics, electrical circuits and thermodynamics. In the lab, students model systemsinvolving alternative energy deployment and industrial process
syllabi and 2) the dynamics of a group discussion. Ifsimilar results appear after round 1 of the Delphi study, further rounds will offer more clarity.Professional Skills:Teaming skills and communication were by far mentioned in most if not all syllabi and groupdiscussion. Given that these are often the most cited characteristics from employers andspecifically cited in ABET criteria, this is not surprising.From here, the most often cited objectives in the CCC workshop were a consideration ofengineering ethics and project planning, which did not appear in the analysis of syllabi. It ispossible – and remains to be investigated – whether, for example, “project planning” and “timemanagement” are meant to be included in the same category. The lack of
. Page 23.443.12[5] Dreyfus & Dreyfus (1980). op. cit.[6] Dreyfus (2004). op. cit.[7] Dreyfus (2004). op. cit. pg. 181[8] Moe, V. F. (2004). How to understand skill acquisition in sport. Bulletin of Science, Technology & Society, 24(3), 213-224.[9] Duesund, L. & Jespersen, E. (2004). Skill acquisition in ski instruction and the skill model’s application to treating anorexia nervosa. Bulletin of Science, Technology & Society, 24(3), 225-233.[10] Eriksen, J. W. (2010). Should soldiers think before they shoot? Journal of Military Ethics, 9(3), 195-218.[11] Koo, D. & Miner, K. (2010). Outcome-based workforce development and education in public health. Annual Review of Public Health, 31(1), 253-269.[12
learneranalysis that will lead to new instruction interventions.Additional analysis of the data from this class can be used for a discussion of cultural stereotypesabout information use and ethical writing practices for domestic and international students. Since20% of this class was students from non-US cultures, it can be seen that the lack of ethicalwriting practices is much broader than the often assumed cultural misunderstanding and different Page 23.450.9early educational experiences.This paper is limited to the individual work the students completed during the semester. Analysisof the team products would provide a look at how working in groups may
Page 23.457.8 practice for professional engineering; 4. Design or develop solutions to complex engineering problems in accordance with good practice for professional engineering; 5. Be responsible for making decisions on part or all of one or more complex engineering activities; 6. Manage part or all of one or more complex engineering activities in accordance with good engineering management practice; 7. Identify, assess and manage engineering risk; 8. Conduct engineering activities to an ethical standard at least equivalent to the relevant code of ethical conduct; 9. Recognise the reasonably foreseeable social, cultural and environmental effects of professional engineering activities generally
. ABETCriteria 3, defines specific student outcomes both directly and indirectly related to sustainability:(c) an ability to design a system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability,(h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context,(f) an understanding of professional and ethical responsibility,(j) a knowledge of contemporary issues,(k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.Unfortunately, exactly how to incorporate sustainability in
important issues facinghigher education in 20131. This technological/pedagogical model has the potential oftransforming the way institutions with varying local resources can fulfill their educationalmission by tapping into resources made available from elsewhere.In engineering, ABET is the primary accreditation organization for post-secondary engineeringand technology programs in the United States. ABET requires that all engineering curriculainclude courses that teach students about the relationship between engineering practice andsociety. As argued in an earlier paper2, while economics and ethics courses are most often usedto fulfill this requirement, history offers the ideal stage on which to illustrate the engineering-society relationships. To
solve engineering problems ideas are supported in both standard and outcome ethical responsibility
Liability Companies.The strategic management of intellectual property assets is introduced, with special emphasis oninternal protection and management of these assets. Issues of product liability and ethics areintroduced through a mix of classroom lectures, readings, case analyses and projects.Marketing for EngineersThis course provides an introduction to marketing concepts, methods, and practices that areimportant to modern technical enterprises. As a discipline, marketing is responsible forfacilitating the exchange process. This is accomplished through an understanding of theperceptions, preferences, and behaviors exhibited by customers and consumers. Thatunderstanding is translated into a complete offering (product/service/features, price
such seminar, “Laser vision correction”, which was developed andtaught by a Biomedical Engineering faculty member for the first time in the fall of 2002.Nineteen students enrolled in the course, 18 of which were Biomedical Engineering majors whileone Mechanical Engineering major enrolled.II. Course Objectives. The instructional objectives of this course include: 1) expose freshman (biomedical) engineering students to one area of biomedical engineering that includes various aspects of Biomedical Engineering (medical, design, regulatory, ethical) as well as convey excitement for this field; 2) teach how the eye works as an optical system and how it can fall short in this function 3) teach how
promotes teamwork, intellectual collaboration and sharing of knowledge. • Increased Teacher Productivity The development of multimedia instructional materials will provide the teacher more time to work with the students, give more accurate information more quickly, and produce more “student-friendly” learning materials.IV The ESTEeM (Engineering Sciences Teacher’s Educational e-Material) ProjectThe University of Santo Tomas (UST) prides itself as the oldest learning institution in thecountry. It is a university that is rich with a glorious past and continues to reap honors through itshighly competent and socially ethical graduates. In 2011, UST celebrates its fourth centennial.The Faculty of Engineering of UST, on the
“thecriteria for knowing”7. Prior findings suggest that cognitive and metacognitive processes emergein young children and remain active throughout their life spans, whereas Epistemic Cognitionbegins to develop in late adolescence and continues to shift in the adult years7-8. In the context ofsolving ill-structured problems, Kitchener stated that, while Metacognition allowed one tochoose different cognitive strategies for the purpose of tackling a specific task, EpistemicCognition allows one to “interpret the nature of a problem and to define the limits of any strategyto solving it” (p. 226). Epistemic Cognition provides the foundation for adults by which theymay deal with conflicting ideas in issues like logic, ethical choice, or career choice
engineering at the Swanson School of Engineering, University of Pittsburgh. His research focuses on improving the engineering education experience, with an emphasis on assessment of design and problem solving, and the study of the ethical behavior of engineers and engineering managers. A former Senior Editor of the Journal of Engineering Education, Shuman is the founding Editor of Advances in Engineering Education. He has published widely in the engineering education literature, and is co-author of Engineering Ethics: Balancing Cost, Schedule and Risk - Lessons Learned from the Space Shuttle (Cambridge University Press). He received his Ph.D. from the Johns Hopkins University in Operations Research and the B.S.E.E
strong appreciation for other cultures and their diversity4. Additional skills cited include acommitment to team work, good communication skills, ethical standards, ability to thinkcritically, and flexibility that allows for accommodating rapid change4. Professional organizations such as National Academy of Engineering (NAE) suggest theundergraduate curriculum should be amended so that international experiences, development ofcultural competencies, and foreign language skills become integral components2 and would leadto the development of a global engineer who possesses appropriate competencies for practice in aprofessional setting with a global reach. Foreign travel experiences and courses tailored to teachthese skills have been
) [17] are easily satisfied. Students developed skills and ability toapply knowledge from mathematics, physics, and engineering. They developed their ability todesign and conduct experiments, as well as to analyze and interpret data. They designed newsetups and systems within constraints such as economic, health and safety, and ethical. Theygained an ability to identify, formulate, and solve scientific and engineering problems. Studentswere helped in their projects to better understand professional and ethical responsibilities. Theyhad different chances to present their work and hone their ability to communicate effectively.Moreover, their work on new topics helped them develop the ability to use techniques, skills, andmodern engineering
the revised PLOs, are as follows. Upon successful completion of the program students will be able to a. Create software requirements specifications, and design and develop complex software systems using software engineering processes and tools. b. Evaluate computer security vulnerabilities and threats, and design effective and ethical countermeasures to address them c. Analyze, design, and develop database solutions by translating database modeling theory into sound database design and implementation. d. Analyze and design complex front-end applications for cloud and client- server architectures and integrate them with backend
scheduling the Aging in Place project. Identify considerations and recommendations for executing the job while the client is in residence. Describe specific design solutions for the Aging in Place client.Success in the student’s achievement of the objectives was assessed by utilizing the CAPS I,CAPS II, and the Building and Business Management section review questions as assigned Page 25.761.5homework, individual student research combined with class presentations, and three multiplechoice exams provided by NAHB. Successful completion of the course, submission of agraduation application, and the signed Code of Ethics are the
. Professional journals are filledwith examples of failed structures. A student can learn important lessons from researching,writing, and presenting a paper on a significant collapse, especially the resulting changes indesign methods and codes. Famous bridge disasters include the Quebec, Tay, and TacomaNarrows bridges. More recent examples of building failures worth investigation are the Kemperand Hartford Civic center roof collapses. The Hyatt Kansas City walkway collapse is a greatlesson in engineering ethics, as well as detail design, fabrication and construction. The story ofWilliam LeMessuirer, the prominent structural engineer who reported a design flaw in his ownskyscraper, the 59-story CitiCorp Center in New York City in 1978, is a compelling