analysis and quality improvements in industry and technology e. Design, analysis, and optimization of product and manufacturing systems f. Management and risk mitigation of technological projects 5. Ability to perform scholarly and applied research works independently as well as in Page 15.991.3 teams. 6. Effective written, oral and presentation skills 7. Consideration of professional and ethical responsibilities in the conduct of research projects.Program Assessment and Continuous Improvement ToolsTable 1 summarizes the assessment methods used to measure the program outcomes outlined inthe earlier section. The
production worldwide is undergoing a revolutionary change at both component and system levels,utilizing chip and board technologies. The new technologies have reduced componentsize and costs and have improved reliability and safety of the electronic products.Electrical and computer engineering education recently has been following changes tointegrate new technologies into curricula and keep up with the fast pace leading toprepared engineers who can contribute to improvement of quality life incorporatingbusiness, social, and ethical issues.The field of electronic manufacturing is a multidisciplinary area that encompassesseveral technologies from electrical, materials, industrial, chemical, and computer
credit hour fall course (EE 400) and a three credit hour spring course (EE 401). During the Page 15.1042.2first semester, the class is focused on design methodology and decision-making. The courseincludes professional issues, and the planning and design phase of the project culminating withoral and written reports. The objectives of this course are to further develop design skills,develop teamwork skills, learn to deal with situations in an ethical manner, and design and writethe senior project proposal. Also in this course, students are placed on teams and assigned eitherindustrial or applied research projects. The student teams initiate and
. Accurate case studies may give students are “realworld” examples. A discussion of the ethical dilemmas involved is appropriate as well.Hose Coupling Problems at the Great Fires Case StudyProposals for national hose coupling standards of the 19th and 20th century have been describedin detail since 1873. The earliest dates are usual missed from the present day accounts. Cochrane(1966) 21 as well as many other authors typically discussed the beginning of the activities tocreate a hose coupling standard as beginning in 1904 after the Great Fire in Baltimore when firecompanies from the region’s major cities arrived to help fight the great “conflagration” inFebruary. Most could not attach their hose couplings to Baltimore fire hydrants because“common
(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 multidisciplinary teams (e) an ability to identify, formulate, and solve engineering problems (g) an ability to communicate effectively Page 22.99.2 (k) an ability to use the techniques, skills, and modern engineering tools necessary for engineering practice.Project
abilities of entering engineeringstudents over the course of their studies. Thus, I argue that ABET 3a-k, particularly those relatedto professional skills, are, in fact, a indicators of a specific type of Academic Literacy unique toengineering students who are preparing for an engineering profession, what could be calledEngineering Literacy. They are also, it can be argued, a foundation of the nine attributes of aprofessional engineer described in The Engineer of 2020.[37] These attributes are: stronganalytical skills, practical ingenuity, creativity, communication, mastery of business andmanagement principles, leadership, professionalism, high ethical standards, and life-longlearners.Engineering faculty often work from the assumption that incoming
science.Alejandra J. Magana, Purdue University, West Lafayette Alejandra J. Magana is a postdoctoral research fellow at the Network for Computational Nanotechnology and the School of Engineering Education, at Purdue University West Lafayette. Alejandra's research interests center on how scientists and engineers reason with computing and computational thinking to understand complex phenomena. She is also interested in investigating how scientists and engineers perceive and experience the societal and ethical implications of nanotechnology. Based on her findings her goal is to identify and develop the necessary instructional changes to provide educational frameworks for educators of formal and informal
current state-of-the-art knowledge and research in sustainability design, manufacturing sustainability, andsustainable systems. Our students will experience that real problems are not in any single domainbut they cross boundaries of several domains, not only among pure engineering disciplines butbetween engineering, business, ethics, social sciences, and agriculture sciences, etc. Thus, thisproject will cover material that demonstrates the intersection of design and manufacturing, Page 15.724.2sustainability aspects, as well as agriculture issues such as shown in Figure 1. As a result, thestudents will be trained to open excellent career
serving communities in need.The history of service-learning shows it embraced by early adopters as more than just apedagogy, but as a philosophy as well. In service-learning there is an underlying belief that thecommunity deserves to be served and that it is the role of colleges and universities to assist inserving them. This ethic is especially strong in attention to underserved communities. Thereforeservice-learning philosophy is the best fit with institutions, departments, and/or individuals whobelieve in this attitude of mission.2.3 Definition of service-learningThere have been many definitions for service-learning in the literature over the years [e.g.,(Jacoby, 1996), (Bringle, Hatcher, & Games, 1997), (Stanton, Giles, & Cruz, 1999
-interest and failure of oversightConflict of interest in the healthcare sectorHow to launch a business in your 20sComparative analysis of various world economiesCost of energy, renewable energy and carbon tradingNational debt, foreign exchange rates and international tradeThis allowed the course to be used to assess two of the Outcomes prescribed by ABET:ABET Criterion f: An understanding of the professional and ethical responsibility.ABET Criterion h: The broad education necessary to understand the impact of engineeringsolutions in a global/societal context.One major use of the textbook in this class is the availability of interest rate tables. Students weregiven a few tables as handouts in the 1st week of class. Once the relevant equations
problem. Laura will share her ideas for otherengineering challenges that can be used in chemistry, biology, and Earth scienceclasses and then participants will brainstorm to create a list of additional ideas.Learning Objectives: A. Students will practice the following Engineering Habits: a. Being creative b. Working and negotiating in teams c. Adopting optimistic mindsets when problem solving and designing d. Considering the ethical nature of engineering and its products B. The following NGSS standards will be addressed: a. Design a solution to a complex real-world problem by breaking it down into smaller, more manageable problems that can be solved through
studies place special emphasis on engineering habits of mind such as creativity (createdifferent devices), collaboration (work in teams), and communication (present findings to theclass). The ethical implications of engineering decisions are discussed when testing the straw andtape bridges.The proposed workshop explicitly includes cases of three different engineering disciplines tofacilitate discussion about the different career paths that engineering can offer.Diversity. This year is the American Society for Engineering Education’s “Year of Action onDiversity.” It is essential that we have a diverse engineering workforce to solve diverseproblems. To that end, and to have an engineering-literate public, it is essential that we reachevery preK-12
Page 18.24.6learn to share and listen to ideas in a respectful way. Furthermore, the development ofcommunication skills is essential to effective collaboration and group planning.2015-ASEE-K12Workshop-Proposal-RehashYour Trash Page 5 of 7 WORKSHOP PROPOSAL FORM 2015 Annual ASEE K-12 Workshop on Engineering Education “Authentic Engineering: Representing & Emphasizing the E in STEM” Presented by Dassault Systems Saturday, June 13, 2015 8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WA Finally, ethical
addressescommunication by requiring the teams to explain their design choices to others, and defendingtheir ideas to other teams who may have scored better in a category. Finally, this demonstrationaddresses attention to ethical considerations by addressing the difference in treatment extentsbetween the water reuse water and sewage water, and the reason for requiring more treatment ofsewage than water reuse due to pathogens and bacteria that are in sewage that adversely affecthuman health if ingested.The demonstration will address the fourth bullet point, “attention to specific engineering careersor fields related to the lesson/activity,” by informing teams that real civil, environmental, andstructural engineers deal with this design problems quite often in
. Safely applies laboratory, test and experimental procedures appropriate to the engineering discipline.(c) an ability to design a system, 2.1 d, g and i) Competently addresses engineering problems involving uncertainty, ambiguity,component, or process to meet desired imprecise information and wide-ranging and sometimes conflicting technical and non-technicalneeds within realistic constraints such as factors. Identifies, quantifies, mitigates and manages technical, health, environmental, safety andeconomic, environmental, social, other contextual risks associated with engineering application in the designated engineeringpolitical, ethical, health and safety
rejoinUNESCO after an 18 year absence, the Word Federation of Engineering Organizations(WFEO) Moved in October 2003 to establish a new Standing Committee on CapacityBuilding, with the United States as the host of the international organization. Theactivities of the new Committee will include:• Providing pathways for the technical and professional societies of the developedworld to make their expertise available to engineers in the developing world – includingtechnical publications, conferences, codes of practice, and ethics• Utilizing state-of-the-art distance learning technology to deliver neededinformation and interactions to engineers and engineering educators in developingcountries• Strengthening engineering education, both initial
its social, ethical, and environmental issues. He proposes abandoning theold paradigm of research versus teaching for the following new paradigm: faculty should beengaged in the scholarship of discovery, integration, application, and teaching. By embracingthese four general views of scholarship, Boyer is challenging us to enlarge our perspective of thepriorities of the professoriate.The scholarship of application, which is closely related to what we would call "service", must beclosely related to one's own field of expertise and relates acquired knowledge to the largercommunity. Boyer contends that application need not always follow discovery- the act ofapplication can and should initiate new discovery. The scholarship of application, which
desired needs within realistic constraints such aseconomic, environmental, social, political, ethical, health and safety, manufacturability, andsustainability.”[2] Based on these criteria, there must be an assessment process in place todemonstrate that students have this ability and that the program is using that assessment toimprove the curriculum.The faculty at MSOE have been assessing a student’s ability to design a product, system, orservice based upon “knowledge and skills acquired in earlier course work and incorporatingappropriate engineering standards and multiple realistic constraints” as defined in and byABET Criteria Three and Four. However, the MSOE faculty believe that a student morethoroughly practices and achieves the design
8. Critical thinking 9. Results oriented 10. Deadline driven 11. Statistics including SPC &DOE 12. Interpersonal skills 13. Problem solving 14. Attention to details 15. Ethics 16. Know where to find /researchThe next stage of this road map process is the creation of a document that enables us tocompile all relevant information into a single page. This would then be communicatedwith the upper administration of the university. The approach suggested by our IABchair, Phil Vaney, was the creation of a Strategy Map. A Strategy Map is a diagram thatdescribes how an organization creates value by connecting
model for modern educationshould focus on optimized knowledge management to maintain and balance two major types oftechnology and engineering knowledge: o tacit knowledge (technology and engineering expertise; design; know-how; engineering ethics, engineering values, and cultural aspects of technology and engineering profession; skills and collaborative teaming) and o explicit knowledge (technology and engineering fundamentals, major contributions to the particular field of engineering profession, technology and engineering standards, patents, established practices and successful engineering developments). Knowledge Management for Technology and Engineering
. Page 9.308.3 Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright © 2004, American Society for Engineering EducationFunction comes from Logos, or Logic. This is under the main control of the Engineering andTechnology disciplines. This is the aspect that is needed to make something work.Value comes from Ethos, or Ethic (Character). It can also be thought of as “Brand”. This is thecharacter of the company providing the good or service. This is the relationship between thecustomer and company. Marketing is the champion for this part of the equation. How does theproduct reinforce the issues of brand? What is the Brand Promise?Form comes from Pathos, or Emotion
method as a purposeful, deliberate and systematic practice for innovation and entrepreneurship, driven by an engineering ethic and responsible professional leadership for improvement and betterment, responsive to real-world needs.” 4These new definitions of engineering and technology has cleared the way for specifying thedifferentiating characteristics that are needed in reshaping professional engineering education tobetter meet the needs of the U.S. engineering workforce across the spectrum, with particularfocus on industry. Clear distinctions can now be made between the aims of research-basededucation for academic scientific research and those of professional education for creativeengineering practice and leadership of
. Page 10.221.2 3. an ability to design a system, component or process to meet desired needs. 4. an ability to function on multi-disciplinary teams. 5. an ability to identify, formulate and solve engineering problems. 6. an understanding of professional and ethical responsibility. 7. an ability to communicate effectively. 8. the broad education necessary to understand the impact of engineering solutions in a global and societal context. 9. a recognition of the need for, and an ability to engage in, life-long learning. 10. a knowledge of contemporary issues. 11. an ability to understand the techniques, skills, and modern engineering tools necessary for engineering practice. 12. an ability to apply knowledge in a
regulatory issues, including pre-clinical and clinicalprotocols, proper documentation, and good manufacturing practices”. The students’ self ratingwas on a scale of one to six, where one represented “not competent”, and six represented“completely competent”. Graduating students in 2003 and 2004 gave an average self rating of4.1 and 4.3, respectively. Many of these students referred to discussions of clinical protocols intheir ethics course as evidence for their competency, perhaps not realizing the extent ofregulatory issues of importance. The first cohort of students to take this course rated theircompetency in program outcome p with an average of 4.8, a significant increase over theprevious two years.Private Sector EvaluationThe course content
ethical responsibility;5. Students are able to engage in life-long learning necessary to advance professionally through continuing education and training;6. Students can succeed in graduate studies in mechanical engineering or a related field if pursued.Some of these objectives may be emphasized to different degrees depending on the program,for example, the importance in an undergraduate program to prepare its undergraduate studentsfor graduate study. However, all of these qualities are obviously desirable for graduating studentengineers to have. The authors will first examine current practices that may be helpful orproblematic for achieving these educational objectives. Potential solutions will be presentedwith each identified problem.In
adjustments), b) proposed measurable objectives, c) proposedbenchmarks for determining program success, d) proposed evaluation methodology, e)supporting database, and f) decisions based on the results of assessment and their targetedimplementation.Sampled results of AMAS implementation for specific academic programs follow.Bachelor of Science in Computer Scienceo Based on assessment and recommendations of the Faculty Judging Panels, a new course, CST 350, Computer Ethics, has been designed and included into the core BSCS curriculum.o Based on assessment of the course CST 427, Programming in Java, and recommendations of the external reviewers, a new course, CST 440, Advanced Programming in Java, has been designed and included into the BSCS core
. These experiments requirecollaborative learning through teamwork. The program consists of a two week on-campus session at Rowan University wherein students interact with departmental faculty,undergraduate engineering students and representatives from local industry. Programsspecifically focus on hands-on engineering laboratory experiments, field trips, workshopson engineering ethics, and computer training sessions.A cosmetics module was recently added to the workshop. Girls at this age are interestedin various cosmetics such as lipsticks, eye shadow and lip gloss. However, few recognizethat engineers are vital to the cosmetics industry. The cosmetics module introduces theparticipants to the ingredients in lipstick and their physical properties
"postmodernethnography moves out from the single sites and local situations to examine the circulation ofcultural meanings, objects, and identities in diffuse time-space." (Ibid: 79) So I am after thecreation and diffusion of dominant images of globalization and the contrasts and patterns amongthe experiences of engineers as they encounter these images.At each site, my ethnographic research included background research of engineering activities,in-depth interviewing with engineers of different levels, genders, ethic backgrounds, andinternational experience, participant observation of engineering-related activities includingseminars, workshops, courses, and meetings, and archival research. Data has been collected inthe form of field notes, recorded interviews
Modules to serve as teaching and learning resources for integratingCDIO skills education into the curriculum. In the current year, four guides are planned inthe areas of oral and written communication, communication in foreign languages,teamwork, and professional ethics. Two partner institutions are collaborating on each ofthe different guides. About ten additional guides will be developed in subsequent years ofthe collaboration.Teaching and LearningThe main goal of the Teaching and Learning Theme is to increase student learning through · problem formulation · increased active learning experiences · immediate feedback · improved instructor skills In the first year, each institution conducted interviews and surveys of their
scientific and engineering experiments, and to analyze and interpret the resulting data. 5. Function and communicate effectively within multidisciplinary teams. 6. Interact with other students, faculty and practicing professionals on professional and ethical responsibility issues. 7. Recognize the need for, and ability to engage in, perpetual learning by working on projects, both individually and within multidisciplinary teams, for which they have no prior experience and developing ways to learn. 8. Use statistical techniques to represent, analyze and interpret data.A recent, new development for the first 3 labs is to have only one, comprehensive project over thewhole semester. How this is done to effectively cover the