; imaging and manipulation techniques, and tools and equipment for producing and assembling at the nanoscale. 3. to provide training and experience in the utilization of scanning probe microscopy in a variety of modes. 4. To familiarize students with mechanical testing at the nanoscale 5. To appreciate the commercial potential of nanotechnology and the required ethics for its development, application and exploitation. 6. To engage students in micro/nanotechnology research through a final project consisting of the design of a novel lab experiment for future advancement. Page 13.1148.7Required Textbooks: Ratner, D
QualificationsThe primary qualifications desired of a mentor are that they be a licensed land surveyor,an active member of a state Association of Surveyors, be located within a reasonablegeographic proximity to the distance student’s locale, and be willing to make the requisitetime and resources available to the student. In addition, there are a variety of otherservices the mentor can provide to the student.Licensure is desired because it indicates that the mentoring individual has successfuldisplayed the knowledge required to perform surveying work at a professional level.Licensure in good standing is also an indication of integrity and ethical behavior in theconduct of business. Active participation in the state association is an indication of the
. Page 13.1097.6Bibliography1. National Science Foundation, “Historically Black Colleges and Universities – Undergraduate Program” NSF02160, October 2002.2. David Clarke, “Practice, Role and Position: Whole Class Patterns of Participation”, Patterns of Participation in the Classroom, Annual Meeting of the American Educational Research Association, Chicago, April 21-25, 2003.3. K. Haimes Korn, G. Crossley, “On Student-Centered Learning and Active Participation,” Available online: http://writing.fsu.edu/?q=node/587, May 2007.4. B. Lewis, “Foster Responsible, Ethical Behavior, Through Class Meetings,” Student-Centered Learning: Community Circle, online: http://k6educators.about.com/od/classroommanagement/a
or agile methodologies rely on iterative development and consistent user feedback5,6.Which style of development one uses depends on the specifics of the problem or opportunityassessed?For existing engineering programs, the business case has already been made and accepted. To agreat extent, the problem or vision statement is also already defined. In general, the goal is toeducate individuals to be competent and ethical engineers. There is variation in the type ofengineer being produced – electrical, chemical, biomedical – leading to a correspondingvariation in the vision or problem statement and there can be slight variations in the exact natureof the mission – engineers primarily for industry vs. research oriented practitioners – but
21. Teamwork **outcomes, 16, 18, 19, 20, and 21. Put 22. Attitudes *simply, such individuals will be ready to 23. Lifelong learning *engineer in the flat world. 24. Professional and ethical responsibility *The Way Ahead An understanding of cultural intelligence is vital to us as twenty-first century engineeringeducators. Globalization will demand that our students, the engineers of 2025, will increasinglyfind themselves in situations requiring cross-cultural cooperation. Knowledge of the attributes,skills
capstone senior designcourse are as follows. The results were presented in the authors’ other paper.6 1. The ability of the students to formulate a problem statement. 2. The ability of the students to generate solutions. 3. The ability of the students to evaluated the generated solutions. 4. The ability of the students to obtain a final design including safety, economic and ethical considerations. 5. The ability of the students to communicate effectively.At the end of the second semester, a similar assessment is conducted by the faculty members andthe industrial sponsors. The five outcomes evaluated for the project are listed below. Theevaluators were asked to rate the outcomes from 1 to 4. The results presented in Table 2
taught, witheach faculty member developing and teaching one of the learning modules. This allowsfor multiple perspectives in multiple areas of sustainability education and draws uponthe expertise of all six faculty members. All of the modules use distinct innovativepedagogical techniques. The modules have been presented and disseminated invarious ways including a workshop associated with ASEE in 2008.2,3,4Course ModulesThe first module, the Historical, Social and Ethical Perspectives, introduces theconcepts of industrial ecology and sustainable manufacturing by focusing on theindustrial revolution from the perspective of its social and environmental impacts.Cotton textile production is used as a case study with a common product, the t-shirt,used
engineering education Focus Possible ImpactsStudent Knowledge Facts, procedures, connections, metacognitionStudent Skills Design (application, invention, creation), communication (speaking, writing, listening, visual), observing, needs assessment, resource assessment, problem definition and analysis, collaboration, interpersonal, intercultural, project management, impact analysis, feasibility, foreign languageStudent Attitudes and Identity Confidence, empowerment, engineer as citizen, ethics
Elements of the cross-college program include revolving leadership and multi-disciplinary teaming roles in satisfying pre-, peri-, and post-trip project deliverables.Students are required to incorporate realistic limitations such as technical, economic,sustainability, environmental, cultural, ethical, and social constraints and on-siteprocurement, project management, and implementation into the project scope. Reflectionthrough daily journal entries and evening project meetings reinforced experientiallearning. Course outcomes and experiences were evaluated through an end-of-trip reportand assessment survey.Evaluation Students participate in formal internal and external post-trip assessments. Theinternal assessment has two parts. In the first
is expected to enhance the program outcomes. These real-life service learningprojects helped students accomplish the following outcomes. The successful graduate will beable - analyze, evaluate, and design transportation system components; - interpret and use experimental and field data; - understand the principles of surveying for accurate positioning and property description; - work as a member and leader of an engineering team; - make oral and written presentations of analyses and designs to supervisors, other engineers, potential and actual clients, and the general public; - understand the ethical requirements of the profession, the need for lifelong learning, and the impact of civil engineering activities
sophistication and interconnection. In this networked model, the traditional analysis, laboratory, and design components would be deeply interrelated: engineering knowledge remains central but is configured to include both technical and contextual knowledge; competencies of practice, laboratory, and design experiences are integrated into the whole, as are professionalism and ethics.”1 Page 14.900.2In addition, the merger of the two centers has provided the NCME the opportunity to expand notonly its scope, but also its mission. During its inception, the overarching goal of the NCME wasto provide curriculum materials and
arenationwide surveys that tell us we are a scientifically illiterate public2,3.The goals that have been offered for promoting a scientifically literate society include benefits to bothindividuals and government1,4. As science and technology become the dominant engines for economicgrowth in the world, a better-educated citizen is able to increase his/her own status by being prepared forthis new market; once a county’s citizens reach this point, of course, the country itself secures anenhanced place in the market. Especially in democracies, better-educated citizens can ethically decide onfuture scientific paths and technological uses5. In addition to the benefits to the public, scientiststhemselves benefit from having a better-informed population
. Even for IT professionals who are more interested in development than inadministration careers, these concepts are vital to understand, since the develop locally, deployremotely paradigm is prevalent in industry. If not, one could envision a case where a Perl scriptwas put onto a deployment server, and a developer not understanding why its default filepermissions prevent it from executing. Additionally, exercises like this that reinforce commandline experience are desirable.Other BenefitsUpon completion of the course, the students are allowed to retain their VPS until graduation, anddo any ethical and non-commercial thing that they may desire with it. Many do not use thisresource after this sophomore-level course, but others do for other
objective of EI courses is to enhance the critical ability of citizens tocomprehend technological systems, to improve their abilities to make intelligent choices.The EI courses should include most of the following characteristics: ≠ Contain well-founded engineering principles; ≠ Relate to engineered systems with which students readily identify, ≠ Involve good science, introductory-level analysis, economics, societal/environmental impact, and such topics as global engagement, ethics, and cultural aspects; ≠ Provide, as appropriate, hands-on laboratory experiences; ≠ Require well-conceived reports based on literature and database searches that include critical assessments and elements of analysis; and ≠ Include basic
employed a range of WWW features, the students were requiredto employ at least three links to additional resources and at least two graphics in their pages. Because it isso easy to “borrow” graphics on the web, the use of graphics from other sites should be discussed. Thisprovides a chance to discuss some ethical issues with a class. As part of this type of project, studentsshould be required to either create their own graphics or get permission to use the graphics they borrow. Page 1.2.4 1996 ASEE Annual Conference ProceedingsVII. DATA EXCHANGES The Internet, WWW, and Email were used to
core subjects. ● enhance their higher order thinking abilities and apply these abilities in humanistic, scientific, and engineering contexts. ● understand the historical and cultural contexts which have influenced developments in science, humanities, and engineering. ● struggle with some of the world’s great ideas and issues, . further develop their sense of ethics and values, particularly concerning the applications and limitations of technology in the modern world. . improve their oral and written communication skills, Again referring to the original proposal written by Barbara M. Olds, Principal
, based on his personalexperience the pitfalls and problems that new faculty face. He also felt that, from an ethical stand point, theexperienced faculty should assist the beginners to start them on a long and productive career. In addition,their department consists of three full time faculty. The quicker the new faculty become comfortable andproductive, the better the students and school are served. Professor Williams was very eager to takeadvantage of any help he could get and was very willing to try the mentoring relationship. It should be notedthat both individuals involved did not concentrate on the goal of attaining tenure. The initial goal was toassist Professor Williams to quickly and as easily as possible become fully productive in the
best way to get the point across to the students 1994). Design is realistic decision making; withoutis to carry out a complete computation of costs. downplaying ethical and social issues that a matureThe systematic economic analysis of standard yet and responsible engineer should also consider, it iscomplex process arrangements helps the students clear that economic factors are always importantunderstand the rationale of the arrangements; the and often central in realistic decision making.students are then better prepared to recognize when Thus, the expanded role of design in introductorya process arrangement is useful and what its and intermediate-level courses creates a need
operational functions. Among the essentialcharacteristics of engineering technology graduates are mastery of the technology of the selected discipline,overall technical competency, adaptability, flexibility, effective communications capabilities and interpersonalskills, creativity in problem solving, effective teamwork skills, ethical responsibility, understanding andappreciation of diverse cultures and ability to continue learning throughout a career of expanding professionalcapacity.” Most people within the engineering technology community consider this a reasonable definition ofengineering technology education and of what the graduates of this education do. Nevertheless, therepresentation of engineering technology within ABET was such that
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 terms; (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/societal context; (I) a recognition of the need for an ability to engage in life-long learning; (j) a knowledge of
Process design of antibiotics Recombinant protein production Bioconversion and enzyme reactions Vitamin C manufacturing Bioseparations Vaccines and other biological drugs Finishing steps. Validation Economics, marketing, ethical issues. Food processes: Introduction, water activity Freezing process
d. an ability to apply creativity in the design of systems, components, or processes appropriate to program educational objectives e. an ability to function effectively on teams f. an ability to identify, analyze and solve technical problems g. an ability to communicate effectively h. a recognition of the need for, and an ability to engage in lifelong learning i. an ability to understand professional, ethical and social responsibilities j. a respect for diversity and a knowledge of contemporary professional, societal and global issues k. a commitment to quality, timeliness, and continuous improvementOf these program outcomes, four deal with subject matter or
nanomedicine, self-assembly, tribiology, and nanobiomaterialsto learn first-hand the engineering and design challenges. The course culminated with researchor design proposals and oral presentations that addressed specific engineering/design issuesfacing nanobiotechnology and/or nanomedicine. The assessment also included an exam (onlyfirst offering), laboratory write-ups, reading of research journal articles and analysis, and anessay on ethical/societal implications of nanotechnology, and summative questionnaire. Thecourse exposed students to cross-disciplinary intersections that occur between biomedicalengineering, materials science, chemistry, physics, and biology when working at the nanoscale.We will also discuss the lessons learned and changes made
lacking. Many groups defineengineering circuitously, by using technology or engineering within the definition itself. He thenworks to define engineering through the ethical considerations of the profession. Additionally,to define engineering, he differentiates it from science. In a workshop given to scientists andengineers, he asked whether they would rather “invent something useful” or “discover newknowledge” 16. The scientists had a hard time answering and ended up split in their decision,while all of the engineers chose something useful. Therefore, he claims, “The primarycommitment of engineers is not to knowledge, theoretical or applied, as one would expect ofscientists, but to human welfare” 17. He concludes that engineers believe they are
Traffic & Transportation 3 Engg Semester 8CES 4702 Reinforced Concrete 4 Islamic/Christian Culture 2 IVTTE 4004 Transportation Engg 3 Engineering Management 3SUR 4201 Route Geometrics 3 Seminar 3ENV 4514 Water and Wastewater 3 Hydrology 3 Page 14.324.6 Treatment EGN 4034 Ethics 1 R.C. Design II 3
. 5% 2% 15% 11% Ecology) Humanities (philosophy, ethics, 5% 7% 22% 17% history) Energy & Power Generation 4% 21% 22% 39% LCA (Life Cycle Assessment) 4% 13% 11% 22% Pollution Prevention, Fate & Transport 4% 1% 16% 9% Policy 4% 3% 27% 24% Business & Economics 3% 10% 28% 33% Natural Resources 2
Standards Education in Technology ProgramsAbstractDuring the past two decades, business and trade have been strongly influenced by informationtechnology and globalization. The business environment is extremely competitive in whichinternational standards and standardization systems are playing an increasingly important role inall areas including technology, finance, trade and environmental law. As a result, the ability toapply technical standards has become an essential skill for engineers and technologists.Engineering accreditation criteria require students to acquire “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
mentioning its potential for long-term, adverse influences onthe environment and human health.The need to integrate environmental/human impact subject matter into undergraduatecurriculums in either engineering or engineering technology has become increasinglyimportant over the last decade or two 7-10. It is of popular opinion that it only makes goodsense to promote ethical and professional responsibility with respect to human healthissues and environmental stewardship early on in higher education and several yearsbefore an individual enters the work force on a full-time basis. A lower-divisionmanufacturing processes course could provide a viable venue to introduce this importanttopic.The purpose of this paper is to describe the integration of
2006-882: EVALUATING METHODS TO IMPROVE TEACHING INENGINEERINGCynthia Finelli, University of Michigan Dr. Cynthia J. Finelli (cfinelli@umich.edu)is Managing Director of the Center for Research on Learning and Teaching (CRLT) North and Associate Research Scientist of Engineering Education at University of Michigan (U-M). Her current research interests include evaluating methods to improve teaching, exploring ethical decision-making in engineering, developing a tool for comprehensive assessment of team-member effectiveness, and assessing the effect of the first year experience on under-represented student retention. She serves on the Executive Board of the Educational Research and
engineeringgraduate, he or she may immigrate to a developed country for employment – attracted bystimulating jobs and higher compensation. Such mobility is inevitable due to economicpressures, and to the lack of challenging and rewarding jobs in the native countries. Itlikely cannot be stopped by ethical and patriotic arguments, by requirements that thegraduate work in the home country, or by a tax to recoup the costs of the engineeringeducation in the native land. Such attempts would simply provide a driving force forstudents who want to study engineering to go abroad even earlier, making it even lesslikely that they will ever return to their country of origin.Trying to stem brain drain by legal action should be evaluated in the light of recentexperience