.d). e. an ability to identify, formulate and solve engineering and electrical engineering problems (ABET Criterion 3.e, Program Criteria). f. an understanding of professional and ethical responsibility (ABET Criterion 3.f). g. an ability to communicate technical information through professional quality reports, oral presentations and interaction with audience (ABET Criterion 3.g). h. the broad education necessary to understand the impact of electrical engineering solutions in a global and societal context (ABET Criterion 3.h). i. a recognition of the need for and an ability to engage in lifelong learning (ABET Criterion 3.i). j. a knowledge of contemporary issues (ABET Criterion
engage scientists and public audiences in face-to-face interactions that promote appreciation and understanding of current science research20.Professional development for scientists: BA Perspectives (coordinated by the British Associationfor the Advancement of Science) encourages scientists, engineers and social scientists to explorethe social and ethical implications of their research and trains them to interact with the public at aposter session in a science festival. Another example is the website, "Communicating Science:Tools for Scientists and Engineers” created by the NSF and the American Association for theAdvancement of Science to help scientists and engineers communicate better with the public.The website offers webinars, how-to tips
consideration to “economic, environmental, social,political, ethical, health and safety, manufacturability, and sustainability” aspects. Today’sengineer must possess more than just what has been traditionally considered technical skills andmust do more than just problem solving. He/she must be able to use creative thinking andinnovative design principles, while grasping importance of changing technologies. Moreover,working within multidisciplinary teams of other industry professionals and communicatingeffectively across all disciplines is of paramount importance 2.Involvement and, for some, leadership roles in “real world” projects that “balance technicalsolutions with social, cultural, environmental, economic, and sustainability concerns, in
management was a huge success, with exceptionally high-levelspeakers including Ministers from Egypt and Iraq, and the Advisor to the King of Jordan, topmanagement from Arab Contractors League and other prominent individuals. It is easy to seehow a student is impacted when he/she hears directly from the person making policies that affectan entire country or organizations so large that they affect an entire region of the world. Inexposing Bradley students to these experiences, the author has enriched their cultural andprofessional knowledge and directly addressed at least three program outcomes (understandingof professional and ethical responsibility, broad education in a global context, and contemporaryissues) listed in ABET’s Criterion 3.3.3 Impact
agreement from perspectives such as ethics, sustainable development, work environment, economy and usefulness. It is also a learning objective that the students should be able to evaluate and analyze their own abilities and competencies regarding working in an intercultural and distributed project, as well as develop strategies that lead to lifelong learning. The focus on competencies suitable for a global engineer is thus more explicit than in the Runestone course. Page 20.24.5
problemsAbility to utilise a systems approach to (c) An ability to design a system, component, ordesign and operational performance process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainabilityAbility to function effectively as an (d) An ability to function in multidisciplinaryindividual and in multi–disciplinary and teamsmulti–cultural teams, with the capacityto be a leader or manager as well as aneffective team memberUnderstanding of the social, cultural, (h) The broad education
concluding thoughts inSection 6. 2. Course objectives and expected student outcomes of ENGR 290ENGR 290 in part addresses several ABET defined student outcomes related to global, societal,and contemporary issues. The related ABET student outcomes include the following: (f) an understanding of professional and ethical responsibility (h) the broad education necessary to understand the impact of engineering solutions in a global, economic, environmental, and societal context (j) a knowledge of contemporary issuesTo achieve these outcomes, ENGR 290 China set out specific course objectives that focused onChina specific content such as how engineering is practiced in China, what are some of thedifferences between engineering
Curriculum Renewal InEngineering Education for Sustainable Development. PhD Dissertation, Griffith University.15. Jolly, L., C. Crosthwaite, L. Brodie, L. Kavanagh, and L. Buys. (2011) The impact of curriculum content infostering inclusive engineering: data from a national evaluation of the use of EWB projects in first year engineering,in AaeE 2011: Developing Engineers for Social Justice: Community Involvement, Ethics & Sustainability, Y.M. Al-Abdeli and E. Lindsay, Editors., Engineers Australia: Fremantle, Australia. Page 21.43.10
who are internationallysavvy and have a specific interest in and knowledge of Japan; and v) to educate students inculture, language and technology, in order that they may be more effective when addressingglobal scientific problems.3.2 Program Model: NanoJapan, like all PIRE-funded projects, is characterized by a tightintegration between the research and education programs. The education program is informed byParkinson’s characteristics for a ‘globally competent engineer,’ in that it encourages students toappreciate other cultures, develop proficiency working in cross-cultural teams, communicateacross cultures, practice engineering in a global environment, and evaluate ethical issues arisingfrom cultural differences14. The program model is
those mechanical aspects,and also introduces sensors, actuators and computer control of integrated mechatronic systems,again in the context of robotics. The integrated engineering topics introduced in ME 1000include: design methodology, mechanical hardware, manufacturing tools, spreadsheets, 3DCAD, Newton’s laws for linear and rotational motion, graphing and numerical techniques,statistical analysis, oral and written communication, teamwork, and safety. ME 1010 builds onthese topics and additionally introduces computer programming, electricity and magnetism,electronic circuits, economics, and ethics. These topics are introduced and reinforced in thevarious course components: lectures, labs, reading assignments, problem sets, a team
ABEToutcomes. Here we were particularly interested in how the course improved students’ abilitiesalong four ABET outcomes: (b) an ability to design and conduct experiments, as well as toanalyze and interpret data, (c) an ability to design a system, component, or process to meetdesired needs within realistic constraints such as economic, environmental, social, political,ethical, health and safety, manufacturability, and sustainability, (e) an ability to identify,formulate, and solve engineering problems, and (g) an ability to communicate effectively.To directly address how students were able to better synthesize skills developed from multiplecourses to new problems, concept maps2 are being employed as a direct measure of the students’ability to better
: Most people think that technology is little more than the application of science to solve practical problems…They are not aware that modern technology is the fruit of a complex interplay between science, engineering, politics, ethics, law, and other factors. People who operate under this misconception have a limited ability to think critically about technology—to guide the development and use of a technology to ensure that it provides the greatest benefit for the greatest number of citizens.32Consistent with the NRC’s vision, the integrated approach used in our AI/philosophy curriculumhelps educate students to think differently about technology and fundamentally question thepossibilities of AI for meeting
RCS.ConclusionThe RCS provides an innovative way to connect communication skills with engineeringresearch. The pre- and post-survey that was presented in this paper showed evidence that RCSstudents’ perceptions of their communication and metacognition skills increased.Evans, et al explained the results of a survey that was completed by engineering employers andengineering alumni. 6 “But both the industry group and the alumni rated communication skills,professionalism and ethics, and a responsible and open mind, above both depth and breadth oftechnical skills, and math and science skills. This is indicative of the mounting evidence thatemployers, especially those that are joining or that have joined the quality revolution, aredesperate for people who do not
of material safety data sheets 3.56 0.89 Understand the uses and importance of maintaining a safety program 4.06 0.77 Apply creativity in the design of ergonomically safe workstations 3.94 1.00 Improve your ability to write precise and concise reports 3.56 0.96 Understand the ethical responsibility to maintain ergonomic and safety programs 3.94 1.00 Develop a commitment to quality, timeliness, and continuous improvement 3.33 1.11 Table 3: Student Learning Outcome Exit Survey Results
38 31 22 0 9 3.9 as, h. As a result of this course, my recognition of the need for, and an ability to 44 28 3 0 25 3.7 engage in lifelong learning can be rated as, i. As a result of this course, my ability to understand professional, ethical, and 25 28 9 3 34 3.0 social responsibilities can be rated as, j. As a result of this course, my respect for diversity and knowledge of
, intellectuallyhonest views of reality; prepare all students to function in a multicultural society; and better meetthe learning needs of all students, including those who are diverse. (1)Course and pedagogy development as part of institutional change for responding to culturaldiversity and combating racism is an ethical imperative for campuses with diverse student bodiesbut it has equal relevance for more homogeneous campuses. (2) For this institutional change tosucceed, it must be part of its culture. An organization’s culture is reflected in what is done, howit is done, and who is involved in doing it. It concerns decisions, actions on an instrumental anda symbolic level. (3
Publications, 3401 39th St., Box 343922, Milwaukee, WI. 53234-3922 (1994) 4. Boud, D., AEnhancing Learning through Self Assessment,@ Kogan Page, London (1993) 5. Woods, D.R., et al., ADeveloping Problem Solving Skill: the McMaster Problem Solving Program,@ J. Engineering Education, April, 75-91 (1997) http://www.chemeng.mcmaster.ca/innov1.htm and click on MPS for a summary of the research findings and some details for many of the units. 6. Woods, D.R., AProblem-based Leaning: how to gain the most from PBL,@ Woods Publisher, Waterdown ON Canada distributed by McMaster University Bookstore, Hamilton, ON (1994) 7. Perry, W.H, Jr., AForms of Intellectual and Ethical Development in the College Years,@ Holt Rinehart and Winston, New York, NY (1968) 8. Woods
addition, expertise in an area does not guarantee that one can effectivelyteach others about that area.7 Further, knowledging is also dependent upon the ability of studentsto teach themselves. Therefore, engineering faculty must design the four-year curriculum to in-clude knowledging.The senior year occurs with its capstone courses featuring an accent upon product design and itsperipheral subjects such as safety, legal liability, ethics, cost analysis, etc. In the domain of engi-neering, the word “design” has a reduced meaning from that commonly found in our societysince design does not usually start with a blank slate but with a prototype that is to be optimizedaccording some given new specifications. Thus, design means, “design analysis.”The
Practical Approach for Converting Group Assignments Into Team Projects," IEEETransactions on Education, vol. 46, no. 2, May 2003, pp. 273-282.8 The evaluations were performed by Keith Research, Evaluation, and Information Services, P. O. Box 160427,Austin, TX 78716. KARL D. STEPHAN is an associate professor in the Department of Technology at Texas State University–San Marcos. He has published numerous papers in the fields of microwave engineering, engineering education,engineering ethics, and the history of technology. VEDARAMAN SRIRAMAN is Professor and Director of the Manufacturing Engineering program in theDepartment of Technology at Texas State University–San Marcos. His research interests and publications are in thearea of
Speaker: Student panel time to start literature search Research Ethics Case Study3 Speaker: Department Head Students may be able to Combining Thesis and Senior Design develop a Senior Design4 Speaker: Student panel project for next fall to support their thesis work Students whose co-op is not5 Balancing Thesis and Co-op thesis
BO (Buffer Overflow) problems. BOwas a problem for software engineers in the 1980’s and is still a problem today. The only waythat software engineering will eradicate BO is to educate software engineering students so thatit’s cleaned up at its source.References[1] Baase, Sara, A Gift of Fire: Social, Legal, and Ethical Issues for Computers and the Internet,2nd ed., Prentice Hall, 2003.[2] CERT Coordination Center, “Cisco ACNS contains buffer overflow vulnerability in theauthentication module when supplied an overly long password,” CERT, Vulnerability NoteVU#352462, Dec. 12, 2003, accessed January 2004.[3] CERT Coordination Center, “Microsoft Internet Information Server (IIS) 4.0, 5.0, and 5.1buffer overflow in chunked encoding transfer
Copyright 2004, American Society for Engineering Education(g) Understanding the social, cultural, global and environmental responsibilities of the professional engineer, and the need for sustainable development(h) Understanding the principles of sustainable design and development(i) Understanding of the professional and ethical responsibilities and a commitment to them.(j) Understanding of the need to undertake life long learning, and a capacity to do so.A case study involving the development of a new process could be used to illustrate toundergraduate students how an existing problem can be identified, a solution formulated viateamwork and the outcomes implemented to provide a responsible and sustainable newprocess. The fact that students can
seriously about project completion. In our class, students do not receive a grade until their project is completed. Additionally, companies need to know that the class is not being sold to them as a ruse for donations. Students are often only one step away from being employed as engineers in the project sponsors’ companies. When project sponsors know that your students take completion seriously, they will be more motivated to hire your students, knowing that a strong work and completion ethic is also something that students leave your program with. In the real world, incomplete projects lead to failed companies. 7. Money isn’t everything. The monetary contribution to the design clinic
professional and ethical responsibility is tested every time our engineering students enter a K-12 classroom. Do they represent the university and the engineering profession well? Are they reliable and trustworthy? Do they serve as effective role models in a K-12 educational setting? The teachers evaluate this every day, and the instructor evaluates this component during formal classroom observations. (Criterion f) Page 10.1304.7 Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering EducationCourse BenefitsFor the
relating to the engineering design process, ethics, math, and criticalthinking skills to introduce them to what will follow in the next three years in their chosen major[1]. Our problem is that our students do not declare majors until late in the freshman year, so wechose to offer an elective course with these elements to students that may have a proclivity forengineering.The students we recruited to register for our experimental introduction to engineering coursewere those who had not validated any introductory courses but had scored high enough on theplacement exams to warrant an advanced introductory calculus course. We chose to stay awayfrom the high validators who are more likely to choose engineering anyway and go after the
Conference & Exposition Copyright @ 2005, American Society for Engineering Educationcurriculum. Thus it follows that if there is a move towards licensing software engineers underthe rubric of the Professional Engineers Licensing structure and requirements, there would be adefinite impact on the curriculum of software engineering programs. The examination forlicensing professional engineers “would require examinations over subjects most softwareengineers neither study in their formal education nor need in order to practice softwareengineering”1. Specifically, in addition to computers and math, the fundamentals of engineeringexamination covers chemistry, ethics, statics, dynamics, electric circuits, and thermodynamics. 23
criteria may appearsuperficially minor, the required effort to make the change reflects on it’s importance. In Dr.Splitt’s words ‘Engineering programs must then demonstrate that their students attain an abilityto design a system, component, or process to meet desired needs within realistic constraints suchas economic, environmental, social, political, ethical, health and safety, manufacturability, andsustainability, as well as demonstrate the broad education necessary to understand the impact ofengineering solutions in a global, economic, environmental, and societal context.’6‘Green’ engineering is the terminology currently in use to describe the process of designing andproducing goods, services, or processes, taking into consideration the effect
necessity, not just an ethical responsibility.Diverse groups are known to combine their unique perspectives to devise exceptionally creativesolutions to the problems they encounter8. The different perspectives and frames of reference ofa diverse team offers competitive advantages in teamwork, service, product quality and workoutput because a workforce that mirrors a company’s customers is more likely to understand theneeds of its customers9.Some progress has been made in attracting women and minorities at all levels of education andemployment, but they are still less likely to choose careers in engineering than in other fields ofstudy6. Has the engineering community presented itself in such a way that we are turning awaymost women and minority
; environmental; sustainability; manufacturability; ethical; health and safety;social; and political.” The FalconLAUNCH program addresses all of these issues [4].IV. Course Grading and Cadet Reaction to the ProgramAssigning individual grades to a multidisciplinary group project of this size is achallenge. The grading system developed includes the input of peer evaluations by themembers of each subdivision team and evaluations by the faculty mentors of these teams.The final grades are assigned by the senior faculty members in charge of the course.Faculty members look at individual contributions, initiative, and time spent workingoutside of class, and quality of the student’s documentation of their efforts. Timeworking on the program is tracked by students
landfills. For the past two years, Minerick has alsoasked the students to write a brief discussion of bioproducts that chemical engineers are involvein making and ethical / environmental responsibilities of dealing with mass leaving the process.The reading contains considerable discussions on the different stages of population growthdynamics21. The following is an excerpt from the handout the students are given. The studentsare asked to match each stage of growth with its definition. a) Cell number and weight increases rapidly. _____1) Lag b) Number of forming cells is equal to number dying