fundamentals portion of the class, which occurs threes time per week and isled by a faculty member, students are introduced to engineering problem solving; get exposed toengineering ethics; and learn how to use computer software for word processing, spreadsheets,and programming in C/C++ and MATLAB. In the laboratory portion of the class, which occursonce per week and is led by a graduate teaching associate (GTA), students conduct bench-topexperiments to investigate fundamental engineering concepts, with a variety of experiences tointroduce elements of each of the engineering disciplines in which a student could choose tomajor. Lab reports or lab memos are assigned most weeks to develop technical writtencommunication skills. Several of the lab reports
included making sure that students hadexperience with team diversity and conflict. Five of the participants reported that their team hadnot been “in sync.” Two other participants reported that their teams were split on whether tolaunch their project as a startup. As one participant reported, their team’s dynamics started on theright path but did not go as well toward the end of the project. The goal, he said, was to get thegrade and not to pursue the project. As another participant put it, his assigned team had noguarantee of a common work ethic or a common vision.A third factor involves lack of passion for the project. These results were aggregated into the“not among students’ main goals” factor in Fig. 1 but are striking enough to merit
information about the country, while identifying engineering challenges. At the end ofthe semester, students will give a presentation detailing how algae-based innovations could beimplemented as a solution to solve healthcare, environmental, or materials problems in theassigned country. The project not only encourages students to think about culture in othercountries, but also prompts them to think about social barriers that would prevent innovativesolutions from being implemented in the country. This project will build upon teamwork andpublic speaking skills, as well as instill a spirit of creativity, problem-solving, and humanitiesamongst students.3.2 Movies/DocumentariesIn order to provide examples of real-world engineering ethical challenges
activities allowed students to explore innovativeideas without confining guidelines or rules. The purpose of the discussions was to stimulateconversation among peers. The PI and program manager acted only to keep the discussion on topicand ensure that all students had an opportunity to speak if they wished to do so. Seminars on twice-exceptional education and creativity were included. Workshops were presented on responsibleconduct of research and ethics, graduate school, preparing for the GRE exam, and technicalwriting. Preparation for graduate school was a key theme throughout the program; the topic wasaddressed in several workshops, brainstorming meetings and seminars. Bringing in outside expertswas successful in increasing the participants’ self
interdisciplinary students learn about and practice sustainability. Bielefeldt is also a licensed P.E. Professor Bielefeldt’s research interests in engineering education include service-learning, sustainable engineering, social responsibility, ethics, and diversity. Page 26.1710.1 c American Society for Engineering Education, 2015 Volunteerism in Engineering Students and Its Relation to Social ResponsibilityAbstractAddressing how engineering students view their role in society, their social responsibility, isseen as a central aspect toward creating holistic engineers
: ABET Criteria 3 (a-k) Outcome ABET Criteria 3 a an ability to apply knowledge of mathematics, science and engineering an ability to design and conduct experiments, as well as to analyze and b interpret data an ability to design a system, component, or process to meet desired needs c within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability d an ability to function on multidisciplinary teams e an ability to identify, formulate, and solve engineering problems f an understanding of
recentyears. The increasing fossil fuel usage around the globe has led to an increased level of carbondioxide in the atmosphere, thus leading to possible global warming 6. Dealing with theseenvironmental challenges calls for technological solutions to which our engineering students canrelate.Another broader issue that was identified is the social responsibility of the global corporation andthe individual citizen 7. An important issue for study program participants to explore is what itmeans to be a responsible global corporation or citizen and to determine if global corporations“take advantage” of lax environmental and labor laws in developing countries. It was decidedthat it was important to include this ethical dimension in the study program so
question 9) please fill out the chart below on ascale between 1-5, rating each of these skills in how TEPP helped you develop andimplement these skills today:1=not true at all 5=very true 1 2 3 4 5 Communication Skills Classroom Management Teaching Skills Writing Lesson Planning Ethics Patients K-12 University and local districts Simple Concepts (Math, Science concepts) Page 12.825.6If you are in Industry please fill out the chart below on a scale between 1-5, rating each ofthese skills in how TEPP helped you develop and implement these skills today:1=not true at all 5=very trueBelow are
anentrepreneur closely mirror those required by the engineering accreditation process, 30 especiallythe ability to work effectively on multidisciplinary teams 31-34. Furthermore, entrepreneurialskills have been shown to promote engineering management skills,35 ethical thought processes,36and engineering design.37-40The engineering faculty at ______ University have worked diligently over the past decade tocontinually improve the senior design experiences offered to its engineering students.41-44 In thispaper, we will address the most recent improvements made to the course during the summer of2006 and during the 2006-2007 academic year, integrating engineering management andentrepreneurship by including MEM students as project managers on half of the
skills as careers advance. • High ethical standards and a strong sense of professionalism: Effective and wise management of technological resources. Recognize the broader contexts that are intertwined in technology and its applications in society. • Dynamism, agility, resilience, and flexibility: It is not this or that particular knowledge that engineers will need but rather the ability to learn new things quickly and the ability to apply knowledge to new problems and new contexts. • Lifelong learners: Learn continuously throughout his or her career, not just about engineering but also history, politics, business, and so forth.From these attributes, a theme of creativity, innovation, invention, ingenuity
, ethical, and economic impact. 2(2) The students are walked through the process of solving the problem posed in the case studyin three steps: (2a) Use teaching techniques that help each student individually remember and understand concepts needed in solving the problem outside of the classroom. (2b) Maximize the time faculty are able to actively interact with students by using time in-class to let student teams apply what they know in analyzing the problem under faculty and TA guidance. (2c) Support student teams as they first design a solution to the problem, then implement that solution in the laboratory/class by using the tools and techniques
of 2020” 6:• strong analytical skills (science, mathematics, discovery and design),• practical ingenuity, creativity,• communication, business and management,• leadership, high ethical standards, professionalism,• dynamism, agility, resilience, flexibility,• lifelong learners.Engineers Australia lists its required graduate attributes as follows 7 – the emphasis is ours: a) ability to apply knowledge of basic science and engineering fundamentals; b) ability to communicate effectively, not only with engineers but also with the community at large; c) in-depth technical competence in at least one engineering discipline; d) ability to undertake problem identification, formulation and solution
mechanicalengineering majors, and junior entrepreneurship majors. The students were all chosen by thefaculty based on their high competence in their respective major, creative spark, work ethic, andthe ability to work in teams. Thus, the students were uniformly good to excellent.We used these criteria for selecting students for several reasons. Firstly, we did not want tospend time on material that was domain specific (there was an exception to this, as noted later),and we wanted students who could complete reasonable tasks in their discipline. Secondly, wewanted to concentrate on design in the context of product development to encourage creative,entrepreneurial thinking. This is possible only when students have acquired reasonablecompetence in their field of
contemporary issues. • An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice. • An understanding of professional and ethical responsibility. • An ability to communicate effectively. • The broad education necessary to understand the impact of engineering solutions in a global and societal context. • This course provides students with the necessary tools (mathematics, chemistry, physics, Page 12.623.11 Earth sciences, and engineering science) to understand and implement the underlying principles used in the engineering of processes and systems. • This course prepares students for
material, test-taking skills, and college survival skills. • Professional Success – career planning and effective presentations. • Engineering Information – career and advisement information and research presentations/laboratory tours. • Engineering Design and Problem Solving – creativity, effective teams, brainstorming, process design, and product design. • Societal Issues of Engineers – ethics, diversity/international issues, environmental issues/sustainability, medicine and bioengineering. • Personal Development – stress management and other wellness issues.This course is a particularly good class to do problem-based, cooperative activitiesbecause it addresses the goal of giving students engineering
the knowledge of the subject matter and begins to delve into the importantarea of cognitive and affective measures of student development. Whereas factstransmitted in the classroom are unlikely to be retained in long-term memory,decision making styles, critical thinking and ethical reasoning abilities,interpersonal skills and identity formation created by the college experience willguide our performance in the workplace. 3 This form of assessment is oftenpresent in cooperative education programs as well.When faculty hold themselves accountable for the students’ development incognitive and affective areas, not simply for discrete bits of knowledge for aparticular course, a culture emerges where the assessment process improvesstudent learning
short papers, in-class exercises, and exam questions, students will acquire more practice in writing engineering communications. • Possess an educational background necessary to understand the global context in which engineering is practiced, including a knowledge of contemporary issues related to science and engineering, the impact of engineering on society, and the role of ethics in practicing engineering. The contemporary political, economic, and ethical issues related to manufacturing often come up on industry tours, and while not formally addressed in the lecture, the students’ attention is directed to them during the course.Specific Expected Educational Outcomes of the CourseUpon completion of
. van Haneghan, B. Johnson, E.J. Newman, and S. van Eck, 2001, “A report on service-learning andengineering design: Service-learning’s effect on students learning engineering design in ‘Introduction to MechanicalEngineering’”, Int. J. Engng. Ed., 17(1), 30-39.3 - Pritchard, M.S., 2000, “Service-learning and engineering ethics”, Science and Engineering Ethics, 6(3), 413-4224 - Zydney, AL, JS Bennett, A Shahid, and KW Bauer, 2002, “Impact of undergraduate research experience inengineering”, Jour of Engineering Education, 91(2), 151-157.5 - Lewis, C., S. Magleby, and R. Todd, 2006, “Learning to design products in environments with limited designtraditions”, Int. J. Engng Ed, 22(3), 591-597.6 - Fernando, S., N. Murali, and S. Bhushan, 2006, “The
management. Other CSQE subjects are covered in the other MScourses shown in Figure 1 above. Table 1. CSQE BOK Subjects covered in our SQM course SUBJECT COVERED IN OUR COURSE? I. GENERAL, KNOWLEDGE, CONDUCT, and ETHICS (10%) A. Quality philosophy and principles Yes 1. Benefits of software quality (Comprehension) Yes 2. Prevention vs. detection
. • Topics: design process, creative design, project management, team work, business basics, product / project lifecycles. (possibly could have ethics and oral/written communication) • Multi-disciplinary project assigned. D. Freshman course • “How Things Work” – show the interdisciplinary nature of engineered products, engineering projects, and their manufacture/construction. • Hands-on laboratory (product teardowns, field trips) E. Suite of Design • Create a suite of design electives organized
professional and ethical responsibility (g) an ability to communicate effectively (h) the broad education necessary to understand the impact of solutions in a global and societal context (i) a recognition of the need for, and an ability to engage in life-long learning (j) a knowledge of contemporary issues (k) an ability to use the techniques, skills, and modern scientific and technical toolsThe electrical engineering department at Oklahoma State University uses a two coursecapstone design sequence. The first course teaches skills required for design, while thesecond course has teams tackle open-ended design projects. The paper addressescurricular changes made to the first capstone course which prepare students for team-based design
Contemporary Engineering Ethics Issues in anIntroductory Freshman Engineering Course,” Proceedings of the 2006 ASEE Annual Conference and Exposition,Chicago, IL, June 18-21, 2006b.iii Mullin, J.S., Lohani, V.K., and Lo, J.L., “WIP: Introduction to Engineering Ethics through Student Skits in theFreshman Engineering Program at Virginia Tech,” to be published in the Proceedings of the 2006 Frontiers inEducation Conference, San Diego, CA, October 27- November 1, 2006b. Page 13.533.14iv Lohani, V., and Mullin, J. S., 2006. “International activities in a freshman engineering course,” Posterpresented at the International Education Fair
3.524 4.0288 Critical thinking 3.578 3.9789 Ability to identify and formulate problems 3.564 3.97210 Importance of a broad and general education 3.803 3.95811 Expectation of the need for lifelong learning 3.433 3.95012 Understanding of ethical and professional responsibilities 3.208 3.92413 Ability to be a leader 3.155 3.83414 Ability to apply knowledge of basic science & chem eng fundamentals 4.063 3.75415 Management
. Page 13.705.3 CADET BASIC TRAINING Afghan, Regional, & Information Pre-Calculus & Ethics, Moral Intro to the Military1 Foreign Language Composition Islamic Culture Technology Modeling Theory & Islam Profession Introduction to2 Foreign Language World History Composition Chemistry Calculus I
distance education,” Journal of Distance Education, vol. 13, 1998, pp. 1–32. 13. McAlpine, H., L. Lockerbie, D. Ramsay, and S. Beaman, “Evaluating a web-based graduate level nursing ethics course: thumbs up or thumbs down?,” Journal of Continuing Education in Nursing, vol. 33, 2002, pp. 12–18. 14. Able, K., “Modernizing the teaching method in the classroom-Does it impact student performance?” Proceedings of the ASEE Annual Conference & Exposition, 2007, AC 2007-2525. 15. Salamonson, Y., and J. Lantz, “Factors influencing nursing students’ preference for a hybrid format delivery in a pathophysiology course,” Nurse Education Today, vol. 25, 2005, pg. 9-16. 16. Young, J.R., “Hybrid teaching seeks to end the divide between
thestudent who achieves a bachelor degree in civil engineering will essentially only be acquiring a Page 13.1398.8‘pre-engineering’ level of knowledge. There will be greater emphasis on history, globalawareness, business and economics, environment and ethics. It just may be that the BS in civilengineering will not suffice for an entry-level position in civil design or construction firms, andthat the new-normal for entry to civil engineering practice will be the Masters Degree. How willthis new-normal level affect the civil engineering industry in the U.S.?As civil engineering education is broadened to be more of a pre-engineering course of study,then
professional manner. (b) 5. Ability to use modern computer tools in mechanical engineering. (k) 6. Ability to communicate in written, oral and graphical forms. (g) 7. Ability to work in teams and apply interpersonal skills in engineering contexts. (d) 8. Ability and desire to lay a foundation for continued learning beyond the baccalaureate degree. (i) 9. Awareness of professional issues in engineering practice, including ethical responsibility, safety, the creative enterprise, and loyalty and commitment to the profession. (f) 10. Awareness of contemporary issues in engineering practice, including economic, social, political, and environmental issues and global impact. (h,j) * Mapping of ME program outcomes to the ABET
Research Experiences for Undergraduates(REU) program [1]. The goal of this program is to support active research participation by undergraduate studentswith the long-term goal of encouraging more students to pursue advanced degrees and to increase participation ofgroups traditionally underrepresented in science and engineering. One key attribute of such a program is that theREU projects must involve students in meaningful ways – i.e. the undergraduates may not be simply lab technicians.It is viewed favorably if the REU Sites include professional development training including ethics. Also, involvingparticipants from diverse schools across the country (especially those from primarily undergraduate institutions) aswell as inclusion of an
,and solve engineering 22.5 1.5 0 0 0 14problems 4.94f. understanding ofprofessional and ethical 17 3 4 0 0 14responsibility 4.54g. ability to communicateeffectively 19 5 0 0 0 14 4.79h. ability to understand theimpact of engineering in a 11 5 4 0 0 18global context 4.35i. recognition of the need for,and ability to engage in life- 14 7 2 0
analog/digital, dynamic reconfiguration for implementing new functionality and obtaining better performance.In terms of ABET’s (a)-(k) criteria4, the following are the primary outcomes set for the course:(a) Ability to apply knowledge of mathematics, science and engineering.(b) Ability to design and conduct experiments, as well as, analyze and interpret data.(c) Ability to design a system, component, or process, to meet desired needs within realisticconstraints such as economic, environmental, social, political, ethical, health, and safetymanufacturability, and sustainability.(d) Ability to function on multidisciplinary teams.(e) Ability to identify, formulate and solve engineering problems.(g) Ability to communicate effectively.(k