priority.Accordingly the collaborative endorses systematic development of engineers through a skilldevelopment structure from entry level to chief engineer level that will ensure the necessarycapacity of appropriately skilled engineers is available. It further endorses integrating advanceduniversity graduate studies with experience and the practice of engineering to better facilitatefuture technology development. This would involve nonresearch based advanced degreeprograms that include such topics as strategic thinking, leadership of multidisplinary teams,system thinking, innovation in engineering, as well as specific technical subject matter expertise.Creation of a national network of universities delivering such a life-long learning curriculum isessential
evaluate the fate of pesticides in drinking water treatment plants, and to develop biomimetic membranes for desalination. Her current interests include undergraduate engineering research and education. Dr. Marincel Payne is co-leading an Undergraduate Research Community to support students learning through research, undergraduate re- search to remove stormwater pollutants via engineered treatment wetlands, development of courses and research related to appropriate technology with strong emphasis on social sustainability, and frameworks for integrating open-ended problems through students’ curricula. c American Society for Engineering Education, 2019 Lab-Scale Treatment Wetlands: A Model for
in learning Page 22.694.3across disciplines. Beasley et al [10] considered detailed processes for curriculum design. Theylisted several integrative experiences that would bring together diverse parts of the curriculum inan engineering department. Carlson et al [11] viewed Design-Build-Test project cycles as anexcellent means of cross-disciplinary innovation and knowledge transfer. Kleppe [12] describes amultidisciplinary capstone design course for high school teachers, bringing together variousaspects of innovation and entrepreneurship. Kostoff [13] looked at developing processes forenhancing innovation, by transferring information and
Developing Country, International Journal for Service Learning in Engineering, Vol. 1, No. 1, pp. 11-26, Spring 2006. 3. Bruun, P., & Medfford, R.N. (1996). A Framework for Selecting and Introducing Appropriate Production Technology in Developing Countries. International Journal of Production Economies, 1996:46-47:197-209. 4. Thilmany, J. (2005). Managing Across Cultures. ASME magazine, 2005:127:2:41-43. 5. Sukumaran, B., Jahan, K., Dorland, D., Everett, J., Kadlowec, J., and Chin, S. (2006). Engineering Clinics, An Integration of Research into the Undergraduate Engineering Curriculum. CUR Quarterly, Vol. 26, No. 3, March 2006. 6. Bonzella, J., Choma, S., O’Brien, K. (2007), Development of Human Powered Grain
Developing Country, International Journal for Service Learning in Engineering, Vol. 1, No. 1, pp. 11-26, Spring 2006. 3. Bruun, P., & Medfford, R.N. (1996). A Framework for Selecting and Introducing Appropriate Production Technology in Developing Countries. International Journal of Production Economies, 1996:46-47:197-209. 4. Thilmany, J. (2005). Managing Across Cultures. ASME magazine, 2005:127:2:41-43. 5. Sukumaran, B., Jahan, K., Dorland, D., Everett, J., Kadlowec, J., and Chin, S. (2006). Engineering Clinics, An Integration of Research into the Undergraduate Engineering Curriculum. CUR Quarterly, Vol. 26, No. 3, March 2006. 6. Bonzella, J., Choma, S., O’Brien, K. (2007), Development of Human Powered Grain
” method that can be applied.This poses a significant challenge to new institutions/programs that have embarked on the process ofapplying for ABET accreditation. Each program/institution has to develop its own methodology orprocess8,9,10 for meeting the ABET requirements based on the resources available at its disposal.Successful ABET accreditation of an institution of higher learning requires several years of priorplanning and preparation11. It must have a strong up-to-date curriculum that meets internationalstandards, qualified faculty and staff in sufficient numbers, teaching and laboratory facilities, andstrong institutional support. It must also put in place a clear, well-defined, and implementableprocess for assessment and evaluation of
CSUN multidisciplinary senior design project in which engineering(computer, electrical, and mechanical) students teamed with computer science students to designand build a CubeSat capable of being launched and carrying out a research experiment. Therange of tasks required to complete this project make it ideal for a team from multiple Page 24.343.2departments.Since the uniqueness of the mission requires custom software, rather than an integration ofexisting software with an operating system and since previous papers have concentrated onprojects across engineering disciplines, this paper will focus on the computer science aspect ofthe CubeSat
AC 2008-397: ENHANCING DESIGN LEARNING BY IMPLEMENTINGELECTRONIC PORTFOLIOSMieke Schuurman, Pennsylvania State University Mieke Schuurman is an engineering education research associate with the Leonhard Center for the Enhancement of Engineering Education in the College of Engineering at The Pennsylvania State University. She received her Masters and PhD in Social & Organizational Psychology from the University of Groningen (The Netherlands). Her work focuses on the enhancement of engineering education. She is a member of ASEE and WEPAN, and actively involved in ASEE's Cooperative Education Division as their Research Chair. She has presented her work at annual conferences of ASEE, WEPAN
outcomes L-S based onprofessional societies input and departmental requirements. In preparing for this new curriculumand related assessment practices, the senior-level M. E. capstone design course “Plant andFacilities Design” was selected in October 2000 as a pilot course, for the development of thestudent capstone portfolio concept and the capstone outcomes assessment process.In particular, the M. E. Department wished to determine best methods of demonstratingachievement of seven “difficult” or “non-traditional” program educational outcomes which havenot classically been “taught” as part of the M. E. curriculum. These include: 1) an ability tofunction on multidisciplinary teams; 2) an understanding of professional and ethicalresponsibility; 3
requirements established bythe North American Board of Certified Energy Practitioners. These new courses are beingoffered to the engineering technology students at both institutions. This NSF-funded projectsignificantly contributes to the renewable energy workforce training by providing functionalknowledge and understanding of solar PV systems integration, installation, startup,commissioning, protection, and troubleshooting. The new courses and laboratories target realindustrial demands in this field, and hence were designed and developed, and are beingcontinuously improved and enhanced in close collaboration with industrial partners.IntroductionRenewable energy systems (RESs) are the new power generation technologies that are widelyused as
including Virginia Tech, the University ofMassachusetts-Amherst, and the General Electric Company. As envisioned, the virtualclassroom will remain an open resource on the web that can be used by any university inteaching a first course in engineering economics. In addition, it is anticipated that it will serve asa continuing resource that students can return to regularly throughout their education and serveas a resource for practicing professionals. Farther reaching, this research is an integral part of alonger-term and broader vision to build an undergraduate “National Technological University”(NTU) for selected core courses in the engineering curriculum. It is anticipated that throughcomputer-based learning methods utilized at the undergraduate
Session 2559 Using a Microcontroller for Sonar Ranging Hesham Shaalan, Ph.D., and Darrell Morris School of Technology Georgia Southern University Statesboro, Georgia1. Introduction The Senior Project is the capstone course in the Electrical Engineering Technology (EET)curriculum at Georgia Southern University. It consists of an individually chosen project that istaken from concept through design to a finished state. It includes related CAD, specifications,theory of operation, and oral/written
inManufacturing is 9.7% [24-25].ConclusionsThe overwhelming recommendation to entice young students to have an interest in themanufacturing sector is a well-designed Manufacturing Processes course. The course should notonly serve the academic and curriculum requirements, but also introduce the students to thesector (e.g., tours, industry speakers, and hands-on laboratory exercises). The three conclusionsare: that proximity to the manufacturing sector for students and campuses is significant, thatinternships and cooperative learning experiences are significant, and that faculty andadministration involvement are vital.A major conclusion of the work presented here is that there is a significant difference in studentsfrom campuses near more manufacturing
andelectrical disciplines. The knowledge of architectural graphics permits the engineering student tovisualize how the engineering disciplines relate to each other within the graphic framework.Consider the analogy of the design of a structure as if it were a puzzle of interlocking pieces. Ifthe student does not have a clear understanding of the shape where their particular componentwill fit, then the process of design will be filled with guesswork and inefficiencies.Strengthening the Multidisciplinary Experience in Engineering GraphicsA proposed curriculum for an introductory design graphics course that is broad based andintroduces the basics of the major engineering disciplines is presented in Table 2. The suggestedsemester course includes a minimum
Paper ID #39081Scaffolding Training on Digital Manufacturing: Prepare for the Workforce4.0Dr. Rui Li, New York University Dr. Rui Li earned his Master’s degree in Chemical Engineering in 2009 from Imperial College of London and his Ph.D in Electrical and Computer Engineering in 2020 from the University of Georgia, College of Engineering. He is currently an industrial assistant professor, who works in General Engineering program at New York University. He taught first-year engineering course as well as vertically integrated project. He has strong interests in educational robotics, project-based learning and first-year STEM
students’understanding of the basic concepts in engineering education. By undergoing a rigorous processof validation, engineering concept inventories can provide meaningful primary assessmentthroughout a curriculum or an specific course such as Vector Statics. The effectiveness of thiscourse is measuring by:1. Integrating previously developed and tested Concept Inventory test specifically for Staticsthroughout the course into weekly modules.2. Making the tests available to the students online via Blackboard and having students tocomplete the end-of-weekly-module test after each module has been completed.3. Collecting the student score data from each test scores for each concept and using them toimprove the course.4. Comparing the student test scores on Concept
Page 4.239.1undergraduate curriculum; 2) development of an undergraduate degree in constructionengineering and management; and 3) development of graduate level programs in constructionengineering and management. This research project— aimed at future “managers ofconstruction”— primarily targets the undergraduate civil and construction engineering curricula.II. Construction Engineering EducationOver the past few years national organizations such as American Society of Civil Engineers(ASCE), American Society of Engineering Education (ASEE), National Science Foundation(NSF), and National Research Council (NRC) have sponsored numerous studies to gauge thecurrent status of undergraduate engineering education and to develop an agenda forimprovement
neighbors.Third, reaction to the workshops was generally positive. One participant said, “The workshophelped me to raise awareness of what local materials could I use in case of an eventual change orcatastrophe.” Thus, the workshops were empowering to teach tools and encourage futureinnovations in a cooperative learning environment. As further evidence of their positive impact,several participants in all three workshops expressed their desire to teach their neighbors andfamily members do build the DIY solutions.5. Integrating DIY Solutions with Engineering Education and OutreachDuring the end of the Fall 2017 semester and in the Spring 2018 semester, the authors organizedseveral DIY-style workshops at several community centers and at a vocational school
model. The Davis model was introduced and discussed in the Seminar in College Teaching. A third important course component was an introduction to project-based learning. Since 1971 WPI has been a leader in using noncourse-based project curricula to teach humanities, integrate societal and technological issues, and to provide a capstone design/research experience within the major discipline. We wanted to instruct future faculty in how to properly design and conduct these project structures. More details on the course can be found by visiting the Web site constructed by some students as one of their optional projects (see below). The site address is: http://www.wpi.edu/-isg_501. ..- Course Assessment and Evaluation Evaluation
2016, he has joined the Department of Electrical and Computer Engi- neering at University of California, Davis as a Lecturer with Potential Security of Employment (Teaching Professor). His teaching interests include circuit theory as well as analog, digital and RF electronic circuits and systems. His educational research interests include applying technology to design modern circuits courses and laboratories.Mr. Jun Ouyang, University of California, Davis Jun Ouyang received two bachelor degrees in Electrical Engineering and Computer Science from Univer- sity of California, Davis, CA, United States. He worked as an IT professional prior to his college years. He is currently a Master’s student at University of
workforce needs.Table 1. The WPI Plan Orients Students Toward Workforce Needs Traditional Curriculum Curriculum in the WPI Plan Each student is an isolated learner Graduates are part of a team Courses develop long, narrow “corridors” of Professions require integration of knowledge knowledge Students follow rigid, prescribed path – little Total responsibility for setting personal opportunity to set personal objectives objectives Get the “right” answers to structured Ask the right questions in unstructured problems situationsToday, WPI students engage in Major Qualifying Projects in a variety of different ways, such ascompleting a
Civil Engineers (ASCE) developed a BOK related to civilengineering and defined it as “the necessary depth and breadth of knowledge, skills, and attitudesrequired of an individual entering the practice of civil engineering in the 21st century”. 7 TheEnvironmental Engineering BOK8 authored by the American Academy of EnvironmentalEngineers (AAEE) is described as “the knowledge and core competencies integral to theunderstanding and practice of environmental engineering”. Other engineering focused BOKscan be described in a similar manner.As a result of engineering BOKs developed to reflect necessary knowledge and abilities,engineering educators have looked to the BOKs when developing and defining curricula. TheComputer Engineering BOK9 authored by
components shown in Table 1. Components in the electrical column are thoroughlytaught in any electrical engineering curriculum. This means that a linear controls course for elec-trical engineering students is well positioned to build upon other electrical engineering courses.When an electrical engineering student is done a linear controls course they are ready to buildcontrols systems. The same cannot be said for mechanical systems where the mechanical compo-nents are often taught, but are rarely used in mechanical and manufacturing control courses. Theiruse is also rapidly diminishing for use in controlling actual systems.Linear and Logical control courses can be compared, as shown in table 2 below
analysisthus become an increasingly important element of a core educational experience.Business leaders value engineers who can model business processes, measure andoptimize efficiency and effectiveness metrics.In 2015, the Institute of Industrial Engineers (IIE) changed its name to the Institute ofIndustrial and Systems Engineers (IISE). The IIE CEO Don Greene explained thereasoning for this by saying; “The name change aligns IIE with the changing scope of theprofession that, while keeping its industrial base, has seen more industrial and systemsengineers working with large-scale, integrated systems in a variety of sectors. The changealso is consistent with department names in many universities, as two-thirds of the top 65schools ranked in U.S. News
personal preparation, and providing sufficient resources for projects. However, ourgreatest challenge has been finding a balance between the traditional content-oriented goals ofengineering (e.g. foundational knowledge, application, and integration) and the more student-oriented goals we have introduced (e.g. self-realization, identity and values formation, and self-directed learning). Introducing project-based and service learning has meant that there is lesstime available for instruction in content and application. Our faculty members regularly discussthis issue, but we suspect it will be an ever-present tension as we strive to bring the highestquality education possible to our students.ConclusionThe panel session will have presented panelists
. Appendix A contains the Bluetooth Project Class Definitions and Pairing Methods.The Cocoa EnvironmentCocoa is a set of object-oriented frameworks that provides a runtime environment forapplications running in Mac OS X and iOS. Cocoa is the preeminent application environment forMac OS X and the only application environment for iOS. An integrated developmentenvironment called Xcode supports application development for both platforms. Thecombination of this development environment and Cocoa makes it easy to create a well-factored,full featured application. One can use several programming languages when developing Cocoasoftware, but the essential required language is Objective-C (a superset of ANSI C).The most important Cocoa class libraries come
decision support systems for managing andsaving the environment7. Hence, for the students to be aware and knowledgeable and be ableto apply their learning in real situations, Missouri S&T scientists and engineers havedeveloped an environmental web-based learning module to complement the GIS learningtool.This evaluation is one part of a large scale National Science Foundation funded project that Page 22.123.6has been carried out over the last several years, in which a web-based e-learning system isbeing developed to facilitate integration of GIS into the Civil Engineering curriculum. Thesystem consists of a number of discipline specific modules
teamwork, with morphing responses into coded subcategories of: cultural,political, and religious awareness, as well as value-based traits of open-mindedness.Twelve of 18 (66.6%) respondents indicated the importance of having proficiency in at leastone foreign language as an important skill to succeed in a global professional environment.Eleven of 18 (61.1%) participants noted cross/inter-cultural communication as a critical qualityof becoming a globally prepared engineer. Several responses referenced the importance ofbeing aware of one’s own cultural perspective, being curious, keeping abreast of worldnews/events and integrated thinking. One respondent stated, “I don't think that the question of‘globally prepared engineer’ is about technical
suggests thatthere are ways to understand organizational culture and how, by extension, an organization’sleaders act with regard to its culture.2Schein defines culture as, "a pattern of shared basic assumptions learned by a group as it solvedits problems of external adaptation and internal integration, which has worked well enough to beconsidered valid, and, therefore, to be taught to new members as the correct way to perceive,think, and feel in relation to those problems."2 Using Schein as a guide, a culture then is nothingmore than a collection of habits and values which are created as a byproduct of reaching theorganization’s goals, and then passed on to subordinates who are members of the unit. Largeorganizations have complex cultures because
. Page 13.981.1© American Society for Engineering Education, 2008 Physiology Concepts and Physiology Problems for Biomedical Engineering StudentsAbstract Physiology is a core element of an undergraduate biomedical engineering curriculum,although programs differ in whether the biomedical engineering faculty or biology faculty teachthese courses, and in whether physiology is taught in stand-alone courses or incorporated intoother courses. Here we first present an analysis of the concepts and topics in physiology that areviewed by biomedical engineering faculty and by representatives of industry as being mostimportant for biomedical engineers to learn. We also provide information on the importance