professional careers. 1. Synthesizing knowledge from early courses 2. Starting from concept to production of a working prototype 3. Project management 4. Time management 5. Dealing with vendors 6. Oral communication with both technical and non-technical audiences Page 14.367.2 7. Writing a formal project reportSenior Capstone ProjectThe four-course senior project sequence consists of Senior Seminar, Senior Design Project I,Senior Design Project II, and Senior Communications. The first three courses are offered by theMET department, and the fourth is by the Humanities, Media and Cultural Studies (HMCS)department. This sequence
professional careers. 1. Synthesizing knowledge from early courses 2. Starting from concept to production of a working prototype 3. Project management 4. Time management 5. Dealing with vendors 6. Oral communication with both technical and non-technical audiences Page 14.368.2 7. Writing a formal project reportSenior Capstone ProjectThe four-course senior project sequence consists of Senior Seminar, Senior Design Project I,Senior Design Project II, and Senior Communications. The first three courses are offered by theMET department, and the fourth is by the Humanities, Media and Cultural Studies (HMCS)department. This sequence
started the project was to test if thecourses offered were preparing students adequately for their future career in industry.Interestingly enough, because of the fact that students often ended up addressing some of theproject’s challenges before taking the relevant course, when asked whether they felt their coursework prepared them adequately for the project they participated in, students suggested that it wasthe other way around. They saw participating in the project instrumental for them to succeed intheir course work, because it kept them more motivated and interested than they usually wouldhave been. Finally, by closely monitoring the unfolding of the project we noticed that we had nosystematic approach for addressing multidisciplinarity and
root causes using modern process IT tools such as data and alarmhistorian applications. We also feel that this is a good environment to teach students how towork in teams effectively. This skill will contribute to their future career success and is one ofthe criteria used by ABET in evaluating undergraduate engineering programs. Page 14.63.3Manufacturing EnvironmentAn Experion DCS system was purchased from Honeywell International with an initial license for1000 DCS tags.7 The Honeywell OPC interface software was also licensed and we plan to use P Pthis OPC-standard-based software interface to connect our dynamic
involved in (mostly)industry-sponsored enterprise projects, in one of twenty enterprises. For furtherinformation about the MTU Enterprise Program, consult the references available in theengineering education literature1-6.The core enterprise experience occurs in the project work courses. There is a differentcourse number that can be correlated to the appropriate semester of the student’sacademic career. The courses are ENT1960 (2nd Semester Freshman), ENT2950 (1stSemester Sophomore), ENT2960 (2nd Semester Sophomore), ENT3950 (1st SemesterJunior), ENT3960 (2nd Semester Junior), ENT4950 (1st Semester Senior), ENT4960 (2ndSemester Senior). All courses are one credit except for ENT4950 and ENT4960 whichare two credits. Project work credits beyond the
innovation (Entrepreneurship Bridges Lecture Series) as well as two entrepreneurshipcompetitions for undergraduate and graduate students respectively. Page 14.580.3Option in engineering management and entrepreneurshipIn the 1970s, approximately two-thirds of all Canadian engineers occupied supervisory-management positions for more than half of their professional careers. In order to better prepareUniversity of Ottawa engineering students for this type of employment, an engineeringmanagement option was added to the curriculum at that time. Furthermore, a 5-year engineeringmanagement program was created in 1980.The option consisted of two management
AC 2009-308: INCORPORATING LEARNING STYLES INTO CONTINUINGENGINEERING EDUCATION: A PROCESS HEATER CASE STUDYCharles Baukal, John Zink InstituteWes Bussman, John Zink Institute Page 14.721.1© American Society for Engineering Education, 2009 Incorporating Learning Styles into Continuing Engineering Education: A Process Heater Case StudyAbstractLifelong learning is critical to an engineer’s success over the course of their career. Some topicsare too specialized to be covered in the typical engineering program and need to be learned aftergraduation. One specific example considered here is process heaters used in the hydrocarbonand chemical processing
to hire entry-levelengineers that have been exposed to their products or processes, but also have already shown a significantlevel of personal interest in the company’s field or area of expertise. Many companies seek for personnelwilling to make their careers in specific technical areas that could help sustain their long-term strategicgoals. Page 14.121.4Informal and formal discussions on how each party can be beneficial to each otherOnce each party has had the opportunity to get to know each other, and to identify each other’s needs,informal and formal discussions start taking place to elaborate a collaboration plan. Informal
(EiE), an NSF funded engineeringcurriculum project focused on integrating engineering, reading literacy and elementary sciencetopics2,3. Another engineering education initiative is Project Lead The Way (PLTW), whichpromotes technology education in the classroom for middle and high school students4. As well,the American Society for Engineering Education (ASEE) has provided guidelines for hands-on,standards-based, interdisciplinary engineering activities5, and the National Academy ofEngineering with their publication Technically Speaking encourages technological literacy6.These curriculum initiatives and publications promote engineering as a career choice. But thereare opportunities in elementary science education where engineering design and
Degree inEconomics in 1959 and was the first in his family to graduate from college. He then obtained anMA Degree in Economics from Loyola College in 1961 and a Bachelor of Law Degree in 1963from the University of Madras. He enjoyed his education and participated in debates in bothEnglish and Tamil throughout his college career. He is an eloquent speaker both in Tamil andEnglish, even now. He practiced law for three years, but he was very much interested in politics and waselected to parliament in 1967. He served for ten years and visited many countries as a Memberof Parliament. He later won an election to the state legislature for 1980-84 in Tamil Nadu andthis was when the goal of starting a university began. He worked with Prof. N
evaluating theperformance of alternative designs. This situation was created to favor the intuitivemethodology, and it was shown through student surveys that they were more accurate when inthe intuitive mode versus the analytic mode. On the other hand, there was a lack of consensusamong instructors about the performance difference when asked which mode would be moreeffective.Engineering curriculum should include aspects of intuition-based decisions and help studentsidentify situations where they are more effective rather than solely relying on analytical decision-making methods.BackgroundEngineers must make decisions repeatedly throughout their careers. They are confronted withmultiple design, material, or manufacturing alternatives and must decide
shown inappendix 1. The course description for these subjects in the curriculum does not exist andthe teaching material has been based on old notes that were translated from Russian tolocal languages, i.e. Pashto and Dari over thirty years ago. Furthermore, the curriculum isnot supported by any experimental work because of the lack of proper laboratory andequipment. This archaic curriculum is not compatible with the needs of the nation or thestudents’ career development. It has very limited or no balance between theoretical andexperimental knowledge and approaches, out of step with most universities across theworld, providing little context or practice into the learning. Furthermore, the level ofsome subjects in the curriculum may not be
2006-15: TEACHING LEAN MANUFACTURING ON A DISTANCE LEARNINGPLATFORM USING VIRTUAL SIMULATIONMerwan Mehta, East Carolina UniversityRichard Monroe, East Carolina University Richard W. Monroe is associate professor of Technology Systems focusing on Distribution and Logistics at East Carolina University in Greenville, NC. He completed his Ph.D. at Old Dominion University in 1997 and completed his M.S. at Western New England College in 1990. His dissertation research was conducted at NASA Langley Research Center in Hampton, Virginia. He has almost 20 years of industry experience in industrial engineering prior to his academic career. He is a member of ASEM, APICS, ASQ, and a senior member of IIE
risk analysis.The initial experience with the course indicated that economic and decision analysis tools caneffectively be used to create opportunities for students to solve actual engineering problemswhile developing deeper learning and preparedness for a career in the industry.The results presented in the individual projects indicated that students had acquired the skillsintended in the new course. However, in order to better support this conclusion, the effectivenessof the course needs to be assessed in future classes so as to have a more robust database. Thecourse is being taught again (Winter, 2006) but not on time to have its results published in thispaper.Bibliography1. Needy, K. L., Nachtmann, H., Lavelle, J. P., & Eschenbach, T
extended to at least five weeks instead of the currently allocated four weeks.Qualitative feedback from students is presented below through their comments. X Liked working with software and hardware integration X Enjoyed working with partner X Applying classroom knowledge to real-world situations was interesting X Just getting to do a self-developed lab project was fun X Very interesting course……making me lean towards computer-based automation career Ü Reliance on partner was a problem Ü Allocate more time to the coverage of interface electronics design Ü Include some biomedical measurements applicationSummaryExperience with student-initiated projects within the instrumentation and data acquisition courseis
turbulence in the liquid metals leading to failures of several kinds, including porosity, hot tearing or failure by cracking in service. Dr. Gregory Hildeman (Alcoa) presented an overview of the growth of the aluminum industry, evolution of Alcoa and examples how aluminum is used in products and applications. From a career view point, key attributes of what makes a good materials and manufacturing engineer in the aluminum industry were also discussed. • Drs. Jacobson and Frollini from Carnegie Mellon University delivered a hands-on course where students conducted several experiments with polymers. The students shrunk polymer sheets to half their original size in a kitchen toaster, made toys
progress through their academic career. The experience culminates whenstudents sign up for 2 credits of project work per semester during their senior year. Atthis time these students are often expected to take a leadership role within their respectiveenterprise. The seniors are also expected to work twice as long on the project. Projectwork credits beyond the 6 or 7 listed in Table 1 are optional.It is noted that the courses listed in Table 2 are co-listed in other departments at theUniversity. Courses are taught by • faculty with affiliations in the School of Business and Economics • engineering faculty who also advise engineering enterprises • instructors in the Engineering Fundamentals department who focus only on
include elements of globalization.The faculty of the Manufacturing Engineering Technology program at BYU have implementedchanges and improvements in course and curriculum to further address the issues ofglobalization and leadership. It is clear that in order to help students make sense of thechallenges and opportunities of engineering and technology careers in a global marketplace, thefaculty must have a grasp of these issues. Nearly every course now has some level of discussionand some assignments which require students to consider international impact in the context oftheir class subject. These can include assignments which require students to investigate, specify,and cost products and processes which are sourced from companies in foreign
diagrams for water is provided, along with suggested tutorial questions for students and recommendations for additional applications. Feedback comments are provided from seniors who used the Mollier and T-s diagrams, and from juniors who used a similar application which provided a tutorial on p-v and T-v diagrams. Several screen shots of the worksheets are provided. The spreadsheet files are available from the author via email.IntroductionTo the budding thermodynamics student, nothing can be quite as daunting as the initial exposureto the property tables for gases and (even more so) two-phase fluids. Many undergraduates, evenat the end of their careers as mechanical engineering degree candidates, are uncertain of
the college.In another instance, the Honors Independent Study course was used by two students, onesenior classman and one junior classman in Construction Management. The studentsdeveloped a substantially complete electronic portfolio that reflected on their entirecollege career. The portfolios reflected on their cooperative work experience and onseveral course sequences in their coursework [12] [13]. The electronic portfoliodevelopment was part of a study undertaken by several faculty members forimplementing e-portfolios for all technology programs in the college.7. Honors Cooperative ExperienceThis option for earning Honors credits is relatively new, and has not been yet used bytechnology students. It is created to enrich the cooperative
qualified to obtained advanced careers. One may argue thatthe use of discrete components and wiring skills learned are highly important and desirable in the real-world engineering environment. However, such skills are usually not the concentration of any four-yeardegree program. It is strength in design capability and design debugging that makes a good engineer, notprototype wiring. The use of discrete components in real-world engineering problems is very limited. Ifsuch use is so limited, should this be the only technology used in the students’ learning environment?One solution to this dilemma is using a combination of mature technology and the latest technology in thelearning laboratory. The truth is that basic TTL components are wonderful tools
his career in both industry and education, he has worked as a consultant, brought in to solve specific problems with high profile military and NASA projects. His current focus in education is to teach sound engineering principals with a hands-on application.Julanne McCulley, Weber State University Julanne K. McCulley (Julie) earned a bachelor’s degree in Electronic Engineering Technology and a second degree in Mathematics Teaching from Weber State University. She has over 15 years of industry engineering experience, specializing in automation and controls in the automotive industry. For three years, Julie taught developmental math courses for Weber State University. She is currently a
served to showstudents that individuals out in the “real world” are actually doing something exciting and aremaking a difference. The talks offered exposure to additional career paths and inspired manystudents. Sometimes the seminars were part of a class, but all the talks were open to the publicand were well attended.ANALYSIS: employing “systems thinking”Some students (and faculty) might feel uncomfortable at first about veering into what wetraditionally consider the “social sciences” in an engineering class, but students rightly demandfor relevance in what they learn. So far, the response has been very positive. Students generallyhave an interest in making a difference in the world, and they are motivated by the thought thattheir knowledge and
financial aid issuesFinancial aid issues are important in a student’s college plan. Academic advisement mustconsider this aspect of a student’s academic career as well as academics. Some of our studentscomplete the 2-year laser technology program and then afterwards work a full-time job andattend night school. The night school program consists of pre-engineering courses such as morerigorous calculus and chemistry courses. The idea is that a degree in laser technology enables astudent to get a reasonable income after only two years of college. The laser technologyprogram contains some general science methods such as Fourier optics and laser gainmechanism. Exposure to these topics enables a student to understand the materials in a pre-engineering
industry in the area of machine and thermal system design for about five years before beginning his teaching career. He has taught for 19 years in mechanical engineering and engineering technology programs. Current interests are in modeling of thermal systems and engineering design. Email: TomHellmuth@letu.edu Page 11.815.1© American Society for Engineering Education, 2006 Interdisciplinary Design Teams – Lessons Learned by ExperienceIntroductionCapstone design has traditionally been a highlight of a student’s study at LeTourneau University.As a general engineering program offering a B.S. in Engineering
Figure 1 Idealized Learning Cycle (adapted from Kolb4)Kolb’s method goes on to describe four different learning modes: concrete experience, reflectiveobservation, abstract conceptualization, and active experimentation. These are illustrated inFigure 2. This theory of learning proposes four distinct learning styles which describeindividual differences based on preferences for understanding and transforming experiences.While some theories of learning base individuals’ preferences solely around personality traits,Kolb suggests that personality, educational specialization, professional career, current jobexpectations, and an individual’s adaptive competencies all influence the preferred learningstyle4.Individuals display attributes of all learning
implementation of the newcurriculum. • Three courses within the biotechnology minor have been designed by faculty within the Department of Industrial Technology: Biotechnology Laboratory I, Biotechnology Laboratory II, and Bioinformatics. • The paper describes selection criteria for course content and topics as it pertains to biotechnology manufacturing.The courses within the biotechnology minor prepare students from multiple degreeprograms for careers within life science-based industries.IntroductionBiotechnology refers to harnessing the properties of a living organism to develop andmanufacture products that benefit human life. Although the biotechnology field hasexisted for nearly a century
of the project and an application forparticipating in the senior capstone courses. The purpose of the application is to learn of theskills acquired while the students were participating in their cooperative education program.Other essential information obtained includes major, technical electives taken or planned to take,and strengths and weaknesses. Following project assignment students began the process oflearning their team members, assigning roles and responsibilities within the team, meeting withthe corporate sponsor, and design proposal development. This gives students an opportunity togain experiences to be successful in their future careers. Faculty members were used as designconsultants throughout the courses. The course coordinator
University. He serves as the lead Graduate Teaching Assistant for the Freshman Engineering and Computer Science Program. He was honored with the most outstanding graduate student in 2004 and excellent in teaching award for teaching assistants in 2005. He had authored three other papers. His research focus is VLSI design and Engineering Education.Thomas Bazzoli, Wright State University THOMAS L. BAZZOLI is Assistant Dean for Fiscal Affairs and Research. He holds the MS in Nuclear Science and Engineering from the Air Force Institute of Technology. During his Air Force career he directed diverse research programs in modeling and testing of system performance, compositional mapping of submicron
, and mathematics. Science and technology became important concerns;chemistry was taught before 1809, a degree in scientific studies was added, and in 1845, Unionbecame the first liberal arts college to offer engineering. In 1895 the Electrical Engineeringprogram was initiated and from 1902 to 1913 it was headed by the “electrical wizard” of theGeneral Electric Company, Charles P. Steinmetz. Today Union continues to offer an outstanding engineering education in a contemporaryliberal arts context. We provide students with a solid foundation for a professional career as wellas an understanding of the liberal arts, and a mastery of the principles that allow students to serveas leaders to advance technology in a socially responsible manner