and interpret data. C. An ability to design a system, components, or process to meet desired needs. 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 solutions in a global and societal context. I. Recognition of the need for, and an ability to engage in life-long learning. J. Knowledge of contemporary issues. K. An ability to use
, clean water, homeland security, manufacturing, globalwarming, population growth and its implications, nanotechnology, space exploration, andmedical implants, as well as engineering ethics. Students have regular homework assignmentsand select a topic of interest to them on which to do a term report. These oral reports have beenvery successful in allowing fascinating looks at many additional topics. In addition to societalchallenges, the course also offers the opportunity to examine pioneers in electronics, fromBenjamin Franklin to Robert Noyce, to obtain insight into the origins of innovation and thechallenges faced in the past. Figure 8 and caption provide a glimpse of the course integration ofsocietal challenges. The designated textbook is
purposeful courses foundation courses Quality/SPC Engrg Econ supporting courses Figure 2: A Minimalist Instruction Pattern for Manufacturing Engineering Instruction The ‘production engineering’ course would reprise the product and process engineeringfacets with multiple parts that make up a complete product. Then, quality engineeringconsiderations would be added. Finally, the entire production system would be designed. Issuessuch as ergonomics, energy efficiency, safety, environmental impact and ethical issues arereadily interwoven with this ‘systems design’ effort. The principal metrics used to evaluate theresultant production system designs are
give coherent meaning to seemingly divergent topics; ‚ To aid students in remembering content; ‚ Or, simply to break up a long lecture.The author is on the faculty in the Electrical Engineering and Computer Science Department atthe University of Michigan. He has used story-telling extensively in all of his classes, includingjunior-level Data Structures and Algorithms, and senior/grad-level Software Engineeringcourses. Story-telling also fits naturally into a Professionalism and Ethics course that hefrequently teaches.This paper describes story-telling as a teaching method. Several examples are used to illustratethe use of story-telling for different purposes. Dos and Don’ts are listed. Finally, the paper givesa summary.Story-telling
technical level appropriate for the students; • the lecture topics can be shown to have relevance to South Dakota and the surrounding region; • the topics are suited to the overall program theme; and • the speakers are qualified to speak informally on a large range of topics during the classroom component of the program.Interaction with the speakers prior to their arrival proved to be one of the most criticalcomponents of an individual speaker’s impact.Classroom ComponentA required course in the CEE curriculum is CEE 463: Civil Engineering Professions, offeredonly in the spring semester to graduating seniors. The course emphasis is on professional,personal, and ethical development of the student engineer. The class meets once
2006-26: LIFE IN MOVING FLUIDS: INTRODUCING CLASSICAL FLUIDMECHANICS INTO BIOENGINEERINGGeorge Catalano, State University of New York-Binghamton Dr. Catalano is a Professor of Mechanical Engineering. He researches and teaches in the areas of engineering design, the fluid dynamics of the natural world and applied mathematics and is included in the Philosophers’ Index for his work in environmental ethics Page 11.896.1© American Society for Engineering Education, 2006Life in Moving Fluids: Integrating Classical Fluid Mechanics into an Undergraduate Bioengineering ProgramAbstractA new course that seeks to
, design, analysis, procurement of equipment and materials, implementation, and performance verification. 2. Conduct necessary engineering experiments, make observations, collect and analyze data, and formulate conclusions. 3. Understand the ethical and societal impact of engineering solutions. 4. Communicate and function effectively and productively both as an individual and as part of an engineering team. 5. Recognize the need for and have the desire to engage in life-long learning. Outcome for all the Engineering Technology programs were exactly the same asthose listed in the TAC of ABET criteria. Nine assessment tools were identified to collectdata for the assessment of outcome achievement for the continuous
technology. Xc) An ability to conduct, analyze and interpret experiments andapply experimental results to improve processes. Xd) An ability to apply creativity in the design of systems,components or processes. Xe) An ability to function effectively on teams. Xf) An ability to identify, analyze & solve technical problems. Xg) An ability to communicate effectively. Xh) A recognition of the need for, and an ability to engage inlifelong learning. Xi) An ability to understand professional, ethical and socialresponsibilities
/about/aboutlibraries.html 3. Turner, K. (2005, October 11). New Students’ Library Guide. Retrieved January 4, 2006 from http://www.library.drexel.edu/about/studentguide.html 4. Bhatt, J. and Baldwin, J. (2003). A collaborative approach toward fostering information literacy in freshman engineering students at Drexel University. Poster presented at the 2003 American Society for Engineering Education Annual Conference & Exposition : Session 1541. 5. Bhatt, J., Fromm, E., and Manion, M. (2004). Engineering ethics, the Drexel Engineering Curriculum and the library - a collaborative teaching partnership. Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition
effectiveinstruction, with the ultimate goal of improved learning. In an attempt to gain a methodicalunderstanding of these factors, Kahn 8 developed a framework for Web-based learning,consisting of eight dimensions: (1) pedagogical, (2) technological, (3) interface design, (4)evaluation, (5) management, (6) resource support, (7) ethical, and (8) institutional. Kahn 14 lateroffered a framework for placing Web-based instruction along a band ranging from “micro” to“macro” uses. The “micro” end of the band involves the use of the Web as a way to supplementor enhance conventional classroom instruction (e.g., providing students in a electronic coursewith an interactive map of the electronic circuit to help them learn device functions). Furtheralong the continuum
course and program outcomes. For example, the RMU benchmark states that at least 80% of the class obtains 80% or better marks in ABET outcomes assessment tasks.Parents would like to see the following: • The university offers a safe and supportive environment for learning. Page 11.193.4 • Student motivation is increased so that students complete the degree requirements. • There is value for their money in terms of student success.The greater community expects modern engineers have the following skill set: • Awareness of ethical responsibilities • Attention to energy conservation, environmental protection, and sustainable
), Construction Engineering (Engr439), Finite Element Methods (Engr 432) and Mechanical and Structural Vibrations (Engr 461).Most of these courses focus on basic design-oriented content to prepare students for practicalexperience. In their last semester, students enroll in a required two-course sequence, SeniorDesign Project (Engr 696/697), in which they: (1) engage in laboratory and field exercises anddemonstrations; (2) discuss the selection of design projects, methods of research, engineeringprofessional practice, ethics, and time management; (3) select, develop, schedule and completean original design project; and (4) present the project orally and in writing. This advanced workis done with maximum independence under the supervision of a faculty
Entrepreneurship (1) (1) ENG3971 Seven Habits (1) ENG4951 Budgeting (1) ENG 4951 Global Competition ENG2963 Electric Circuit (1) Design & Fab (1) ENG3955 Conceptual Design / ENG3956 Industrial Health and Problem Solving (1) Safety (1) ENG3957 / 3967 Product and Process ENG3958 Engineering Ethics Development (1) in Design (1) ENG3966 Design for ENG3968 Manufacturing Manufacturing (1
were informed that their engineering technology degree was not recognized andthat they were ineligible for the positions. Ethically, it became necessary to inform students atthe outset of the program that they may not be eligible for such jobs, which effectively broughtenrollment in the program to a halt. Page 11.114.8Conclusions and RecommendationsThe experiences in the development and delivery of the SET program at ASU have led to theseveral conclusions. • Such a program is best delivered as a Security Systems Engineering program. • The Sandia methodology forms a foundation for such a Security Systems Engineering program and is
character of thespecific technical knowledge required for full participation in a technological society. By Hirsch’s definition, even most engineers would not qualify as technically literate inengineering fields not related to their own. And, as Young, Cole, and Denton recognize in“Improving Technological Literacy” (2002), “Even engineers, who have traditionally beenconsidered experts in technology, may not have the training or experience necessary to thinkabout the social, political, and ethical implications of their work and so may not be Page 11.652.8technologically literate”.9 In sum, the terminology “literacy” is condescending
to design a system, component, or process to meet desired needs within realistic constraints such as economic, Page 11.1001.2 environmental, social, political, ethical, health and safety, and manufacturability. (www.ABET.org)This project also satisfies the ABET criteria (3)(j) which reads: Engineering programs must demonstrate that their students attain knowledge of contemporary issues. (www.ABET.org)This was accomplished by having the students examine advancements in technology thathave improved the efficiency of different power plants and by having them investigatenewer and possibly less known forms of power generation
onesentence, rather than as part of a complete document, these were primarily used to makesure students understood the concepts, rather than to see if they could really proofread adocument.The major assignment in the proofreading area was that students were asked to discuss acase study related to ethical decision-making in engineering6. Students had the option ofselecting from a variety of cases. Most of the papers written were two to three pages inlength. When the students brought their papers with them on the due date, they were toldto exchange papers with another student. That student was to proofread the paper, notingerrors and possible corrections. When completed, the proofreader would return the paper
have 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 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 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
. Themuseum needs to be able to show records of acquisition decisions. Acquisitions are frequentlytraded with other museums if there is an opportunity to acquire a better period piece.Prioritization of new acquisitions is also a database and planning need for the museum.It is important that ethical decisions are made in the acquisition of objects. The museum haslimited funds for acquisitions, and it certainly wants to authenticate items’ origins and values.Acquisition and disposal policies need to be part of the overall system planning. Typically theexecutive director makes recommendations to the board in collaboration with a collectionscommittee or another professional’s opinion. The museum’s ability to conserve an item mightalso be part of this
ofengineering is extensive. Does that make us a learned profession? No! The skill with whichknowledge is applied to the solution of society’s problems is an essential part of a learnedprofession. Is skill in the application of the knowledge of engineering required? Most certainlyyes! Is this sufficient to qualify as a learned profession? We don’t think so.The Knowledge, Skills and Aptitude (KSA’s) necessary to master the practice of a profession, itsskillful application with the understanding of its impact on society, with integrity (ethics) isessential to be considered a learned profession. The practice of engineering can meet this test.We think it has been weak in fully complying with these requirements. Yes, engineering is alearned profession. If it
some excellent guidelines on incorporating teamwork into existing courses[2]. Another approach to developing teamwork skills is the Interprofessional Projects Program(IPRO®) at our university. The IPRO program aims to build ethical, teamwork/communicationand project management skills in undergraduate students that enhances their performance inproject based real-world work settings. Even when promising strategies have been identified, theother major challenge is to develop ways of measuring whether the intended learning goals arebeing met. An important guide to developing self-report instruments to measure the professionaloutcomes specified by the ABET criterion 3 has been provided by Immekus, Tracy, Yoo, Maller,French, & Oakes [3]. They
two texts: Biotechnology - Science, Engineering and Ethical Challenges for the Twenty-First Century [Joseph Henry Press (NAS), 1996] and Frontiers in Tissue Engineering [Pergamon-Elsevier Science Ltd., 1998]. Page 11.474.1© American Society for Engineering Education, 2006 Development of Educational Materials for a Bioengineering Fundamentals CourseAbstractA significant effort has been made to develop educational materials for sophomore-levelbioengineering and biomedical engineering students. The materials focus on the conservationlaws and include: a textbook, a problem-based learning
), he is Principal Investigator of the NSF-funded project Enhancing Engineering Education through Humanitarian Ethics, which is developing a graduate curriculum in humanitarian engineering at CSM.Thomas Bigley, Virginia Tech Thomas Bigley (tbigley@vt.edu ), a Ph.D. candidate in Science and Technology Studies at Virginia Tech, is currently researching technology, identity, and Occidentalism in East/West relations. He teaches courses in Science and Technology Studies, including Engineering Cultures. He received B.S./B.L.A./B.E.D. degrees from the University of Minnesota, M.B.A. from Fordham University, J.D. from the William Mitchell College of Law, M.Eng. in Civil and Environmental
today, it must increase the number and qualityof persons with technical expertise and the diversity of the STEM (Science, Technology,Engineering and Mathematics) workforce1. The business community not only wishes to increasethe diversity of their workforce as an ethical responsibility, but has also come to understand thevalue of employing a diverse workforce and is embracing the concept as a business necessity.Diverse groups are known to combine their unique perspectives to devise exceptionally creativesolutions to the problems they encounter7. 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
as the integration of theory with practice.‚ Inquiry methodology, which includes hypothesis forming, experimental design and methodology and evaluation of results.‚ Vocational aims, which include awareness of current practice and the inculcation of professional ethics.‚ Development of personal skills, such as communications, report writing and teamwork skills.Unfortunately, educational institutions often lack the resources needed to help students tobecome proficient with equipment. For example, a Manufacturing Automation and Roboticscourse typically uses programmable logic controllers, sensors, robots, and machine visionsystems in teaching automated manufacturing system design. However, students’ learning ishindered by obstacles
on their projects, student team members learn and then put into practice Teaming, Project Management, Product Realization, Ethics, and other skills practiced by product developers in industry. A typical team may have three engineers from different departments (perhaps two undergraduates and a graduate student), an undergraduate industrial design student, and a graduate student in the English Department’s Professional Writing program. We have also had architecture students, art students, Human-Computer Interaction Institute students, and business majors in the class. Students from all fields have had exciting experiences working together, applying all of their varied skills and experiences to address the many aspects of
function on multi-disciplinary teams • an understanding of professional and ethical responsibility • the broad education necessary to understand the impact of engineering solutions in a global and societal context • a knowledge of contemporary issues [2].Service-learning team projects have the potential to ensure students learn and demonstrate thesequalities in addition to the ability of applying engineering to the design of systems and Page 11.1358.2experiments. However, how to fit more material into an already packed curriculum is acontinuing challenge to engineering educators and students. Service-learning offers a
Toxins Microbially Catalyzed Pollution (e.g. Acid Mine Drainage) Extreme Environments Microbes in Agriculture = in-depth coverage of topic and = general overview of topic Page 11.467.6 Many of the critical thinking skills described in Blooms taxonomy can be accomplishedvia laboratory experiences.8,9 And, ABET accredited programs are required to include labexperiences. The objectives of lab experiences include:8,10 instrumentation, experiment, dataanalysis, design, learning from failure, creativity, communications, teamwork, and ethics. Table4 presents laboratory exercises that could be used to support topics in each of
indicates that Mechanical Engineering students have unprecedented accessto textbook solutions manuals, and possibly a large percentage of students regularly refer to thesemanuals when working graded homework assignments. Many faculty voice concerns regardingthe ethics of this behavior and its affect on student learning; however, the prevalence of thesolutions manual usage and its effects on learning are not well documented. To better understandhow students use solutions manuals, a survey was submitted to undergraduate students andfaculty of the Mechanical Engineering Department at California Polytechnic State University,San Luis Obispo, as part of a larger study on the effects of solution manual access on studentlearning. The methodology emulates
-Req X X Lab II Report Stu-Req X X Capstone Design Project Stu-Req X X Multidisciplinary Team Project Stu-Req X X Ethics Project Stu-Req X X Heat and Mass Transfer Project Stu-Opt X Fluid Mechanics Project Stu-Opt X Reactor Design Project Stu-Opt X Separations Project Stu-Opt