, processes, projects, networks)-operation (doing = active action)-in the real world (not in model world),-based on positive feelings (enthusiasm, love, hope, compassion, respect, faith, humor) by-selected (not all),-internally-driven (committed)-people (not organizations), who can-manage wholes (operative, tactical and strategic levels) and possess-continuously renewed knowledge and skills (mental models) and-adequate information (external models of different forms),-adequate resources (money),-adequate time (key people), and-efficient tools (concrete and abstract tools, technology) within-physical,-environmental, and-ethical constraints.The checklist includes 23 items. The list is multiplicative in nature: in case one of the pointsis missing, the
, as theyare encouraged to attend, listen to, and respect their fellow students’ presentations.Table 1. Examples of Categories and Student-selected Topics for One-Minute Engineer Presentations. Demo Minute Newsworthy Word of the Day Biography Flybar1200 pogo stick Hurricane Katrina flooding* levee* Henry Ford physics of guitar strings* Jet Blue emergency landing timbre* Alexander Graham Bell engineered athletic apparel* Boston’s Big Dig traffic routes bionics* George W. Ferris bat-inspired security search* ethics and privacy in security* kinetoscope* Thomas Edison
demonstrations of team communication skills and written assignments such as meetingminutes and agendas, project presentations in the form of a design review and test plan, and ateam final report. The students are seen applying course-supplied techniques in their teamprocess and design and test of their robotic solutions. The course is structured to allow for peer-reviewed writing assignments, professional development, and team skills coaching. The coursealso provides a convenient opportunity to discuss relevant professional issues such asprofessionalism, ethics, registration, and engineering societies. Student feedback on the coursehas been positive, and students carry enthusiasm into subsequent design sequence courses.IntroductionEngineering is a
: Mechanical Engineering atSmall Scales; Designing Intelligent, Human Scale Systems; Efficient, Clean EnergyTechnologies; and Advanced Manufacturing and Processing. Another paper he co-presented at the International Mechanical Engineering Conference and Exhibition in 2003was entitled: ‘Managing a Major Curriculum Reform Effort in a Large ResearchUniversity.’(4) Several recommendations were made in that paper: consolidate the separatefreshman courses in graphics and intro to ME into a single course; convert machineelements into a project-centered experience; convert thermo course into a project-basedthermal-fluid systems course. In conclusion, the authors stated that “The knowledge,skills, ethics and attitudes which we are trying to instill are
4.19 belts, pulleys, and sprockets for mechanical design applications. 1 Ethics - understands the importance and consequences of ethical behavior. 4.18 Engineering Graphics - Read, apply, and measure GD & T and size tolerances to meet 2 4.17 design goals and reflect manufacturing process capabilities. Mechanics - Design axially loaded members, beams, bars in torsion and machine parts in 2 4.16 combined loading for both static failure and deflection
also chose to operate theindustrial robots in the Robotics and Automation Laboratory. Movie hour featured themovie, I ROBOT. Students were asked to fill a simple survey about the movie as welltying the learning experience and the futuristic and robotic concepts they saw during themovie. The idea of ethics was also emphasized.Students were given pre- and post-tests. Post tests results showed (in Figure 4) greatimprovements in each student’s confidence on most of the fields covered. Lack ininfluence in microcontrollers can be explained by time constraints as mentionedpreviously. Animatronics: The Next Generation of Toy Makers Microcontrollers 1.3
Develops measures & checkpoints Coordinator Clarify policies Expect accurate work Control projects Brings a sense of order Plans the schedule, organizes, stability, control, continuityProducing Results Producer Focuses on competition Emphasize speed Shows hard work ethic Can do attitude
andgovernmental leaders regarding the ability of the USA to compete in a global market1,2, 3 .A persistent theme in these discussions is the role and importance of scientific and engineeringeducation in making the US workforce competitive. Issues regarding “innovation” areprominent in these discussions. Clough et al 2 emphasize that the “Engineer of 2020” should becharacterized by strong analytical skills, practical ingenuity, creativity, high ethical standards,dynamism, agility, resilience, flexibility and abilities for lifelong learning as well as otherimportant characteristics.We have been working on designs for bioengineering educational environments that seek toimprove the effectiveness of bioengineering education and inculcate the principles
instruction • interactive fundamentals to a variety of • provides for • efficient instruction • interested and problems lifelong learning • engaged instruction motivated students • creative • a seamless web • ethical awareness • international • culture for life-long learning • ubiquitous • flexible connectivity across • multidisciplinary • enthusiasm for learning programs and institutions • personalized • intellectual spirit • professional discernment • precise • knowledge and experience in • provides professional and
sustainability issues are key. • Teach Ethics (6) It is recommended that professional and personal ethics be a regular part of the curriculum so that students consider the impacts and responsibilities of manufacturing engineering. • Provide direct interaction with industry (5) Students will gain necessary perspective and understanding by being exposed to industry professionals through tours and visits, SME/industry meetings, guest speakers in the classroom, and industry participation on projects. • Consider a Product-centered curriculum (5) A suggestion is made to change the focus (or even the name) of manufacturing engineering curricula to one of product design and development rather
for careers in industrialenergy sector.1. Introduction The U.S. Department of Energy, Society of Manufacturing Engineers, the Department ofLabor and other professional organizations have recognized the need for well-educated and well-trained workforce to meet the need of the changing U.S manufacturing industries. Therecognized competency gaps in today’s work force, according to the Manufacturing EducationFoundation [1], are: low level education, minimal skills to cope with high tech gadgets, lack ofmotivation for technical careers, poor communication skills, poor work ethics, unawareness ofjob opportunities, lack of adaptive skills, low skills in the use of energy related software, and lowlevel knowledge in the use of instruments for
strategic marketing course initially refreshes the marketing infrastructure bybriefly highlighting some selected principles, concepts, tools, processes, theories, issues, debates,real-life practices and ethics of marketing based on the following definition of marketing: Page 11.209.5 “Marketing is an organizational function and a set of processes for creating, communicating, and delivering value to customers and for managing customer relationships in ways that benefit the organization and its stakeholders” [6].The focus of this course eventually becomes a marketing strategy exercise filled with tacticaldetails. Through a computer
majors after the freshman year.Many freshman classes are intended to develop specific student skills in areas such graphics andcomputer programming. Requirements from the Accreditation Board for Engineering andTechnology (ABET)2 have resulted in the inclusion of topics such as teamwork, ethics, and theengineering profession at the freshman level.Design is also a component of many first-year engineering courses. The inclusion of design atthis level is probably one of the most-discussed topics in engineering education. A commonargument against design content at the freshman level is that without the mathematical andanalytical skills, student design projects tend to trivialize the detailed design steps. Crockett etal3 counter this argument by
countries. Anotherexample is an engineering ethics class assignment where students learn how to do businessethically in countries with different sets of laws and customs. Finally, we hope to provide someregular opportunities for significant international experiences like the internships described inthis paper. These initial efforts have been modest, but we plan to continue to enrich ourcurriculum with material on global manufacturing, in order to keep our program relevant to thedynamic manufacturing environment which our graduates face today. Most of the faculty in ourprogram have been to China at least once to learn first-hand about the manufacturingcapabilities, strengths, and weaknesses that exist in that country. First-hand experience is
processing, and engineering ethics. Email: paulleiffer@letu.eduRoger Gonzalez, LeTourneau University ROGER V. GONZALEZ, PhD, PE Roger V. Gonzalez, is a professor of Biomedical & Mechanical Engineering at LeTourneau University with specialties in Musculoskeletal Biomechanics and Dynamic Systems Modeling. He is also Adjunct Professor in Mechanical Engineering at the University of Delaware. Dr. Gonzalez is a registered Professional Engineer in Texas and is actively involved in collaborative research with several universities. Dr. Gonzalez received a B.S. degree in Mechanical Engineering from The University of Texas at El Paso (UTEP) and a M.S. and Ph.D. in Mechanical Engineering from The University
the EnvironmentTechnology and the Environment provides an overview of major environmental issues andconcerns associated with modern technology. This course examines technological innovationsand their impacts bringing together concepts from science, math, natural systems, governmentand policy, ethics, and individual behavior. The topics covered build from small scale (materiallevel) to large scale (systems level) as the semester progresses. This path allows students torecognize that the various stages involved with bringing technology to market (and phasing itout) each have impacts to be considered. The course builds on existing knowledge and choicesof everyday life, while plugging gaps and correcting factual misconceptions where necessary
Universities and Compatibility with K-12 Outreach “The mission of Duke University is to provide a superior liberal education to undergraduatestudents, attending not only to their intellectual growth but also to their development as adultscommitted to high ethical standards and full participation as leaders in their communities; toprepare future members of the learned professions for lives of skilled and ethical service byproviding excellent graduate and professional education; to advance the frontiers of knowledgeand contribute boldly to the international community of scholarship; to promote an intellectualenvironment built on a commitment to free and open inquiry; to help those who suffer, curedisease, and promote health, through sophisticated
the villagers to see some of the same faces year after year that will improve the long-term success of the projects. Furthermore, the experience gained by one class in implementing their design can used to improve the design of the next year’s class.• The sophomore design course is already linked to an ethics course. Therefore, there is already a course in place that can help to facilitate further discussion of the ethical implications of how the project will help or may even hinder the development of a community.• The pedagogical technique of “just in time learning” could be used in the sophomore class to teach the students the technical subjects needed for them to complete their design. It is hoped that a “tast
design background. The Civil Engineering Body of Knowledge for the 21st Century1 and The Engineer of 2020:Visions of Engineering in the New Century2 document a call for broadly trained civil engineersconversant not only with mathematics, science and design, but also multi-disciplinary teams,professional ethics, communications, globalization, life-long learning, contemporary issues, pro-ject management, construction, asset management, business and public policy and administrationfundamentals, and leadership principles. Further, there is a push by the CEE profession overall topromote change in university undergraduate curricula by revising the basic civil engineering ac-creditation criteria to embrace as much of the breadth as possible. This
Borders (EWB-CU). EWB is an organization dedicated to partnering with disadvantaged communities toimprove their quality of life. In essays on this experience, 16% of the men and 27% of thewomen stated interest in joining a professional organization due to a desire to contribute tosociety. One female student stated: “I want to join a group to help me get involved in communityservice.” Another woman noted: “[The EWB group] really excites me with all the opportunitiesthat engineers have to change and help different parts of the world.” One part of the courseincludes a project on the technical, social, and environmental aspects of the Three Gorges Damin China. In the ethics module, students can read about moral exemplars, including a civilengineer
2006-695: WHAT IS TECHNOLOGICAL LITERACY AND WHY DOES ITMATTER?David Ollis, North Carolina State UniversityGreg Pearson, National Academy of Engineering Greg Pearson is a Program Officer with the National Academy of Engineering in Washington, D.C. In that role, he develops and manages new areas of activity within the NAE Program Office related to technological literacy, public understanding of engineering, and engineering ethics. He currently serves as the responsible staff officer for the NSF-funded study, Assessing Technological Literacy in the United States, and the State Educators’ Symposium on Technological Literacy project, funded by the U.S. Department of Education. He previously
engineering.” 2002. William Oakes, et al. 32nd ASEE/IEEE Frontiers in EducationConference; “ASEE and service learning”. 2000. Edmund Tsang. Prism.5 “Engineering education and service-learning.” 2004. Rachel L. Vaughn and Sarena D. Seifer. Community-CampusPartnerships for Health, June.6 “Service-learning and engineering ethics.” 1999. Michael S. Pritchard. International Conference on Ethics inEngineering and Computer Science, March.7 The Chronicle of Higher Education, 8/15/20058 “Integration of Service Learning into Civil and Environmental Engineering Curriculum.” 2005. Thomsa Piechotaand Shashi Nambisan. Proceedings of the Annual Conference of the American Society for Engineering Education,Portland, OR.9 “Work in Progress
, smart structures and intelligent systems; iii) provide student-faculty interactionsand involve graduate students as mentors in the development of research experiences forundergraduates; iv) conduct tutorials on using necessary hardware and software; v) arrangeweekly seminars on topics such as technical communication, codes and standards, ethics andgraduate school opportunities; vi) provide opportunities for teamwork, project management,leadership and communication skills for successful completion of project work; and vii) arrangefield trips for demonstrations of practical relevance of research.RecruitmentThe REU site program was publicized by: i) mailing flyers, typically in December, to Aerospace
seminars 28 12-1612-14 Seminar #3 28 12-1615- 16 Engineering and society Ethics 210 21The challenges inherent in creating one of the discipline-specific seminars are numerous. Aninformal, but very important, seminar goal is to create excitement about a given major. Studentsare to be introduced to technical content; however, they may not have completed any of theprerequisites required for major classes. Further, the content of the seminar may not be used as aprerequisite for any other course, because it cannot be guaranteed that particular students willhave taken any given seminar. Eighty-four students take each seminar, while
architecture andarchitectural engineering. The ABET 2000 criteria assessed are (f) an understanding ofprofessional and ethical responsibility, and (g) an ability to communicate effectively. FrancisChing’s Form, Space and Order is the course text, as it very competently provides a generalframework within which basic principles can be explored. Each year, the lecture presentationsand assignments are re-examined and further developed in an attempt to continually improve theeffectiveness of the course. In the fall of 2005, an experimental information delivery techniquewas utilized, in the form of a weekly case study investigation. The following paper describesthis teaching methodology, and uses the student evaluation data to assess its effectiveness.The
faculty decided to limit use of the CNLSsystem to one course for the spring 2005 semester. This would permit faculty time toconfigure the system and test the operation on a pilot class before widespread operationwas implemented.The pilot class selected was the fifth of the CCNP sequence. Fifteen students participatedin the pilot class and had the option of using the CNLS system or laboratory equipment.Few restrictions were implemented in the management software since it was a smallgroup and because the software package was new to the faculty. It was assumed thatstudents would be ethical in using the system and since it was a small group systemadministration would be minimal.All students in the pilot course used the CNLS system, but usage varied
provide a methodfor improving student design processes that has been experimentally validated, which would beof interest to educators interested in engineering design. Second, we describe a cross-overexperimental method which can be useful to a broad range of education researchers wanting totest pedagogical tools/methods experimentally. The experimental design has simple but stronginternal and external validation indicators, and overcomes some of the ethical issues which oftensurround experiments in an educational setting. Page 11.623.2BackgroundThe first design phase following need identification is generally concept design; that is,addressing a
,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
create quality programs that “satisfies the needs of constituencies in a dynamic andcompetitive environment.”1, p. 1 Many of the general criteria for basic level programs require theeducational experience to expand from one being focused on book knowledge learning and“canned” experiments to one that also emphasizes authentic real-world applications of thisknowledge.Some institutions might believe that satisfying ABET criteria means requiring students to takemore courses (e.g., communication, ethics, public speaking, psychology) in an already intensivecurriculum. Others might believe that students need to have projects in more courses, whichcauses concern because little time is left for instruction of core knowledge and concepts. Othersmight