, Kenya, Peru, Thailand, Philippines, Florida and Louisiana.Rationale for Service Learning Page 15.1060.2As stated in the University’s Mission Statement, students and faculty have a responsibility to“better the human condition”. (3) It is a goal of the university to inculcate in the students a beliefthat they have a moral and ethical responsibility to try to improve the lives of all people. Further,the Mission Statement “encourages students, faculty and staff to engage in service experiencesand research, both locally and globally, so they learn from others, provide public service to thecommunity and help create a more sustainable world”. (3
mathematics, science, and engineering, (b) an ability to design andconduct experiments, as well as to analyze and interpret data,(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,(d) an ability to function on multidisciplinary teams, (e) an ability to identify, formulate, andsolve engineering problems, (f) an understanding of professional and ethical responsibility, (g)an ability to communicate effectively, (h) the broad education necessary to understand the impactof engineering solutions in a global, economic, environmental, and societal context, (i) arecognition of the need for
used as directives for the team ≠ What are the patient, health care provider, and societal expectations of the lifetime costs, risks, and benefits of medical implants? ≠ What are the legal, ethical, religious, cultural, public policy, and economic barriers to implant retrieval and reporting, and how can they be overcome? ≠ What information is necessary to evaluate and improve implant and material performance and device design? ≠ What can the role of information data systems be in educating the public, medical community, and policymakers about medical implants and retrieval? ≠ What future research and institutional support is necessary to
examined was the K-12 and collegeSTEM education pipeline and, in particular, Boeing’s current role in this area. Based onobservations gained through this study, recommendations were proposed for an educationaleffort in STEM education.Attributes of an Engineer: A StudyA study, recently commissioned by the National Academy of Engineering (NAE), identified thedesired attributes of the Engineer of 20202. These traits are: • Possesses strong analytical skills • Exhibits practical ingenuity; possesses creativity • Good communication skills with multiple stakeholders • Business and management skills; Leadership abilities • High ethical standards and a strong sense of professionalism
information from this assignment revealed student attitudes aboutcivil engineering. The course included additional assignments on sustainability (2009 only),ethics, a team West Point Bridge Designer project, a curriculum plan to graduation at CU with aB.S. in CVEN, a paper on a significant event or structure related to civil engineering (such as theThree Gorges Dam, the flooding in New Orleans from hurricane Katrina, etc.), and a shortsummary of a professional society meeting that they attended (such as ASCE or AGC). In thefinal assignment of the semester the students wrote a reflective essay that instructed them to statewhether or not they planned to remain a civil engineering major and why/why not. The studentswere also instructed to comment on
and rapid manufacturing content.IntroductionReverse engineering has been utilized in the engineering world to learn from competitors’product designs in order to maintain competitive advantage against them. It should be conductedwithin the boundaries of ethics and intellectual property laws. On the contrary, reverseengineering concepts and tools have been commonly used in applications other than productdevelopment or industrial needs. It is employed by medical technologists, historians,anthropologists, paleontologists, primatologists, and forensics scientists, just to name a fewprofessions.Following a literature review summarizing relevant educational cases, this paper presents the keyexamples of non-industrial reverse engineering applications
importance of contextin both effective engineering and in the learning process, teachers learned about thefundamentals of engineering mechanics through hands-on activities that they could use in theirown classrooms and within a variety of contexts that included the design process, an ethics casestudy, and the history and aesthetics of bridge design. Fundamental principles from the learningsciences and the research on educating under-represented minorities were also discussed andmodeled throughout the workshop. Examples include the use of conceptual frameworks andnarratives for making engineering concepts relevant to grade 6-8 students in an urban, diverse,and challenged community. Teachers applied what they learned during the workshop bydeveloping
already struggling to survive past their limit to afford energy and goods?Food for the hungry is another consideration. A strong outcry has erupted over the use of foodproducts (such as corn) for the production of ethanol to be used as a fuel.4 Thus, discussions ofboth ethics and economics should clearly be part of any decision to convert from the use of coalto alternative fuels in new designs for power plants.Project SpecificationsJunior MEs taking Thermodynamics are introduced to many of the fundamental principles (work,heat, quality, enthalpy, entropy, and efficiency) and components (piston-cylinder, throttle, nozzle,diffuser, compressor, pump, boiler, condenser, and turbine) which are incorporated into energyproduction. Energy-producing
formulation and implementation.Case studies are included as well as computer simulation of business enterprises. 3. Oral and Written Communication (3 credits)The social context of scientific writing; recording as the basis for writing; the importance ofdigital electronics; a professional approach to writing; collaborative writing; your audience andaims; organizing and drafting documents; revising for organization and style; developinggraphics; searching the literature; documenting sources; memos, letters and e-mail; progressreports; journal articles; oral presentations; instructions, procedures, and computerdocumentation. 4. Legal and Ethical Issues for Engineering Managers (3 credits)Introduction to ethical and legal issues as applied to
realistic constraints, such as economic factors, safety, reliability, aesthetics, ethics and social impact.Implicit in this understanding of Figure 1. Navajo Bridge in the Grand Canyon Nationalengineering design is that need is Park7something that is established by non-engineers or engineers working outside of engineering practice and is communicated in anover-the-wall approach to the engineers. Non-engineering factors such economics, safety,reliability, aesthetics, ethics, and social impact are relegated to a plethora of systematizedapproaches often known as Design for X If engineering design is merely the application ofalready well defined knowledge then there indeed
preparingstudents to become engineers in the 21st century and the importance of integrating all elements ofsuccessful engineering practice in engineering education. In addition, they wrote a shortdescription of an idea or plan for implementing innovative techniques in their classroom. On thebasis of these ideas, they were preliminarily placed in one of four affinity groups that stemmedfrom Educating Engineers: design education, engineering fundamentals and analysis, laboratory/project/ experience-based learning, or ethics/society/broader engineering skills. Attendees wereable to attend more than one affinity group session at the symposium.The organizers strove for a mix of formal and informal networking opportunities, small groupdiscussions, and panel
the EET program fullfills more strongly theABET outcomes related to: • Demonstrate that students are able to function on multi-disciplinary teams, • That students show a strong ability to identify, formulate, and solve engineering problems • That students are able to understand professional, social, environmental and ethical responsibility.Due to this collaboration EET faculty and IAB members agreed that the senior design courseexperience could be greatly enhanced if the students could work in projects related to solveproblems that engineering industries face every day. Giving students experience with a real-world design project that involves managing tasks, people, budgets and deadlines. The projectsalso
desired needs within realistic constraints such as economic,environmental, social, political, ethical, health and safety, manufacturability, andsustainability…to understand the impact of engineering solutions in a global, economic,environmental, and societal context” 6.Many other organizations continually advocated this “educational reformation”. The AmericanSociety of Civil Engineers’ (ASCE) Code of Ethics requires civil engineers to “strive to complywith the principles of sustainable development in the performance of their professional duties…[including] global leadership in the promotion of responsible, economically sound, andenvironmentally sustainable solutions that enhance the quality of life, protect and efficiently usenatural resources” 7
modern tools including computer systems and software. Page 15.172.23. be able to integrate theoretical and practical knowledge in the completion of assigned tasks.4. be able to communicate effectively in spoken and written form.5. be adaptive to a changing environments and new technologies.6. exhibit an ability to assist others and contribute to multi-disciplinary teams.7. have an awareness of contemporary professional, ethical, societal, and global issues.Similarly, the program outcomes have been defined according to the ABET Criteria forAccrediting Engineering Technology Programs1, as “statements that describe what units ofknowledge or
quality and the natural resource base essential for future development.”As Mays2 points out, the concept of sustainability is not new. However, official recognition ofthe concept in practice has come relatively recently. For example, the ASCE Board of Directorsintroduced the concept into the ASCE Code of Ethics a little more than a decade ago3.Equipping civil engineers at the university level to plan and design sustainable developments,buildings, and processes is also relatively new. Even sanitary and in more recent timesenvironmental engineering, which is a fairly mature civil engineering sub-discipline, focusedpredominantly in the environmental and economic spheres of sustainability with less emphasison the social element. Steineman4
Elective Year 2 Calculus 3 Calculus 3 Statistics Statistics Engineering Ethics Engineering Ethics Material Science Material Science Geology Electric circuits 1 Calculus 4 Calculus 4 Design 1 Design 1 Strength of Materials Strength of Materials Electric Circuits Engineering finance Economics Electric circuits 2 Geology 2 Electronic Physics 1After a number of years advising students for course selection, its seems there is a population ofengineering students who compare and contrast the
≠ Gaining in depth expertise in technologies creative problem solving creative vision [invention, ≠ Strategic vision≠ Engineering ethics relevant to innovation, thinking out of the ≠ Engineering ethics relevant to safety / environmental issues box] at program / systems level technology / socio issues≠ Concepts of systems engineering ≠ Gaining in depth expertise in ≠ Value judgment≠ Project engineering management systems architecture ≠ Leading people≠ Knowledge of Six Sigma ≠ Engineering ethics relevant to ≠ Results driven≠ Communication skills technology / socio
program was originally designed to address the specific educational objectivesof the Civil Engineering Program which state “Graduates of the Civil Engineering program willdemonstrate professional responsibility and a sensitivity to a broad range of societal concernssuch as ethical, environmental, economic, regulatory and global issues.” While this educationalobjective was originally adopted for civil engineering students, it is applicable to all engineeringstudents regardless of discipline. Specific educational outcomes for the program include: 1) Thebroad education necessary to understand the impact of engineering solutions in a global andsocietal context, 2) Recognition of the need for, and an ability to engage in, life-long learning,and 3
through relevant research. Each of these approaches has its benefits. Focusing on the historical design and evolutionof certain kinds of technology allows students to develop an understanding and appreciation ofthe origins of technology and fundamentally asks how technology works and why it developed in Page 15.1350.2the way it did. Technological philosophy courses encourage students to question technology, itsmoral and ethical purposes, and how technology fits within society. Both approaches haveproven valuable in the field of technological literacy.Course OverviewThis course is innovative in both the content and the curriculum design
the University of Pittsburgh. His research focuses on improving the engineering educational 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, Dr. 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 BSEE from the University of
written.The focus of the following comments have an emphasis on the practical nature of engineeringeducation and a need to support the workplace. A number of respondents indicated specific topicsand methods. In general the comments suggest that education must be tied to the needs of manu-facturers. [Industry Comment] Patents and how to protect IP should be taught to US manu- facturing students Page 15.946.6 Addition of ethics and soft skills, such as emotional intelligence, work ethic, etc.[Industry Comment] Entrepreneurship must be coveredPolitically and Socially:safety: both worker and product - remain
: (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 system, component, or process to meet desired needs within realistic constraints such as economic, environmental, social, political, ethical, health and safety, manufacturability, and sustainability (d) an ability to function on multi-disciplinary teams (e) an ability to identify, formulate, and solve 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 engineering
legal issues relating to the construction management field. Themission of the program is to produce quality construction management graduateswith technical and management skills that meet or exceed the expectations ofindustry, government, and graduate programs. The goals of the program are toprepare graduates for a lifelong professional career in the construction industry,meet the educational requirements for professional certification, and to providegraduates with solid academic preparation for graduate study.MissionThe mission of the Construction Management Program is to educate the studentsfor professional construction leadership positions with a sense of ethical andenvironmental responsibility and also for advanced degree programs. The
ProgramProgram Educational Objectives1) To produce graduates who demonstrate professional competence in engineering practice inlocal and global industry environments, or in related careers in government or academia.2) To produce graduates who exhibit effective communication, team work, and readiness forleadership while acting ethically and professionally.3) To produce graduates who maintain awareness of societal and contemporary issues and fulfillcommunity and society’s needs.4) To produce graduates who actively engage in life-long learning, by completing professionaldevelopment/training courses and workshops, acquiring engineering certification, or pursuingand completing an advanced degree.Program OutcomesThe graduate will have:(a) an ability to apply
, and Systems Engineering. • Apply these abstract concepts and practical skills to design and construct robots and robotic systems for diverse applications. • Have the imagination to see how robotics can be used to improve society and the entrepreneurial background and spirit to make their ideas become reality. • Demonstrate the ethical behavior and standards expected of responsible professionals functioning in a diverse society.3.3. Measurable OutcomesBased on the above objectives, the outcomes are that all graduating students will have • an ability to apply broad knowledge of mathematics, science, and engineering, • an ability to design and conduct experiments, as well as to analyze and interpret
required courses are: Computer Applications in Chemical Engineering; Introduction to Engineering with no ChE activities, 1 credit; and Programming for Engineers also with no ChE activities. 2 credits. (39)Option 4This option includes a common first-year, a common engineering course with ChE content, andChE activities. Common course content typically includes programming, teamwork, ethics,software, projects, and communication/writing. - Auburn University has a ChE section of a general engineering course, Introduction to Engineering, ENGR 1110, required for ChE majors, with emphasis on design, college level skills and projects. (2) - Bucknell University has a required Introduction to Engineering with an overview
service learning, introductory materials engineering, biomedical materials design, and tribology. Dr. Harding has published numerous manuscripts in the area of ethical development of engineering undergraduates through application of psycho-social models of moral expertise. He also conducts research in student motivation, service learning, and project-based learning. His technical research is focused on degradation of biomedical materials in vitro. He currently serves as Associate Editor of the online journal Advances in Engineering Education, is Chair of the ASEE Materials Division, and ERM Program Chair for the 2010 ASEE Annual Conference. Dr. Harding was invited to deliver a workshop on
faculty mightconsider for instructional improvement.References[1] Canary, H., & Jennings, M. (2008). Principles and influence in Codes of Ethics: A centering resonance analysis comparing pre- and post-Sarbanes-Oxley codes of ethics. Journal of Business Ethics , 80, 263-278.[2] Carley, K. (1997). Extracting team mental models through textual analysis. Journal of Organizational Behavior , 533-558.[3] Corman, S., Kuhn, T., McPhee, R., & Dooley, K. (2002). Studying complex discursive systems: Centering resonance analysis of communication. Human Communication Research , 28, 157-206.[4] Crawdad Technologies, L. (2005). Crawdad Text Analysis System version 1.2. Chandler, AZ.[5] Grosz, B., Weinstein, S., & Joshi, A. (1995). Centering
problems. This requires students to plan the designprocess comprising of project definition and planning, specification definition, conceptdevelopment, detail design, testing and refinement, and production.5.5 Demonstrate an understanding of professional and ethical responsibility The RFID-AD design platform is a natural place to introduce ethical as well as globalengineering issues. By working on these projects, students obtain first hand feedback from theend user. This helps students obtain a clear picture of the health and wealth of public, and todisclose promptly the factors that might endanger the end user. By working with end user, butnot the corporate industries, students have the ability to approach system design based onusability
AC 2010-1248: DEVELOPMENT OF CORE CONCEPTS AND LEARNINGOUTCOMES FOR THE INTRODUCTORY TRANSPORTATION COURSEKristen Sanford Bernhardt, Lafayette College KRISTEN L. SANFORD BERNHARDT is an Assistant Professor of Civil and Environmental Engineering at Lafayette College, where she teaches courses related to transportation, civil infrastructure, and engineering ethics and researches issues related to infrastructure systems modeling. Dr. Sanford Bernhardt received her Ph.D. and M.S. from Carnegie Mellon University and her B.S.E. from Duke University, all in Civil Engineering.Steven Beyerlein, University of Idaho STEVEN W. BEYERLEIN is a professor of Mechanical Engineering at the University of Idaho