with set dates for deliverables. The student is hired to complete the research to meetthese deliverables and interruptions for internships or co-ops which do not directly contribute tothese goals can be grounds for removal of the research assistantship altogether. Any studentinterested in pursuing these opportunities should discuss them with their advisor; in some cases,it may be possible to work out a mutually beneficial research assistantship and internshipappointment, while still meeting the deadlines for research deliverables. Hiring summer researchinterns in place of regular research assistants could be one solution. Every school has a career
education andmultidisciplinary researches. The main activities of the partnership program have been conductedin the Synergetic Education and Research in Enabling NASA-Centered Academic Developmentof Engineers and Space-scientists (SERENADES) Laboratory 1 sponsored from 2004 to 2007under the NASA’s Minority University and College Education and Research PartnershipInitiative (MUCERPI).One of the primary objectives is to use the excitement of NASA’s mission and the MUCERPIprogram to inspire more minority/underrepresented students to pursue education and research,and ultimately to choose careers in the areas of electrical, computer, or astronomical engineering.During the entire funding period, the SERENADES Laboratory endeavored to the preparation
thank the individuals who have taught with me through out my short career at CalPoly; Tom Leslie at Iowa State University, James Doerfler and Tom Fowler in the ArchitectureDepartment, plus Brent Nuttall and Ansgar Neuenhofer in the Architectural EngineeringDepartment . Team teaching with each of them has exposed the students to a wide array ofdesign approaches, unique perspectives on building design, and unparalleled camaraderie in theclassroom. Without their presence, these qualities would be impossible to replicate on my own.BibliographyDavis, James R. Interdisciplinary Courses and Team Teaching. (Phoenix: American Council on Education/OryxPress Series on Higher Education, 1997).Maroney, Sharon A, Some Notes on Team Teaching, Western Illinois
AC 2008-2705: MEDIUM VOLTAGE SWITCHGEAR, TRANSFORMER ANDINTERCONNECTION SPECIFICATION IN AN ECE CLINICPeter Mark Jansson, Rowan UniversityUlrich Schwabe, Rowan University Ulrich K.W. Schwabe has received his Bachelors in Electrical and Computer Engineering at Rowan University in 2007 and is currently enrolled in their Master’s program.Andrew Hak, Rowan University Andrew Hak is a Senior electrical and computer engineering major at Rowan University, NJ. He is expected to graduate in May of 2008 and start a career as a power engineer working in the electric utility field. Page 13.882.1© American Society
engineering design, from sensor measurement and vehicle interfacing toelectrical energy consumption and strategy implementation on some of the most advancedvehicle technology available today.Introduction and BackgroundA unique and successful degree program at Minnesota State University, Mankato is theAutomotive Engineering Technology (AET) undergraduate program. Unique in that it isone of the only, if not the only, ABET accredited program of its type in the United Stateswith numerous graduates each year pursuing primarily automotive technology andengineering test and development careers in industry. As part of the program,undergraduates complete a two semester (one year) senior design project related to anautomotive system development, student
) motivating students in the applications of themathematical concepts that reflect realistic problems in their prospective engineering careers, 2)integrating these complicated applications into the tight schedule of engineering courses, 3)leveraging the overwhelming complexity so that the students are not intimidated, and 4)compensating for the lack of physical models required in most engineering applications Theauthors considered these challenges in the development of modules and agreed that a frameworkfor module development was required. The authors began preliminary research to develop sucha framework centered on the concept of abstraction.The authors began by exploring resources developed by other colleagues, reviewing the existingdigital library
to a full year. This will allow additional topics such as engineering ethics, leadershipand career development to be added to the content portion of the course. It will also allowstudents greater time for both the design and the construction process. Both elements arecurrently compressed in the 20 week schedule. It is anticipated that at 10 weeks the students willhave a preliminary design review with the critical design review occurring mid-way through thesecond quarter.LogisticsFaculty OrganizationFor each offering of Senior Design Project, one faculty member is assigned the courseorganization task. They are responsible for finding the projects, organizing the students intoteams, giving the weekly lecture and organizing the participating
to Students Engineering students, especially those pursuing a career in the manufacturing arenawould greatly benefit by understanding the concepts and methods of Value Stream Mapping(VSM). Many engineering students do not have the background knowledge or experiencenecessary to fully understand the manufacturing processes and the process flows let alone thecomplexities associated with them. This inexperience that the students have can be improved byusing the simple methods of VMS. After initial discussions on the types of manufacturingprocesses and discussions on the non-manufacturing processes involved the student would havethe basic knowledge necessary to generate a map. Graphically depicting the process flow and
practice, inwhich ‘design’ denotes the systematic selection and articulation of components into an overallsystem. An example may be the typical design of the components of a commercial heating andventilation system, the design of the structural members of a building, or the design of hardwareand software components for a given functionality. Although each scenario allows for a numberof acceptable designs, early-career engineers are generally acculturated into a professionalpractice environment in which a ‘right answer’ or ‘best answer’ is defined based on establisheddesign codes and standards, engineering precedent, and business practices related to maintainingprofitability of the design endeavour.Finally, many design engineers express frustration
AC 2008-2922: THE ROLE OF DIAGNOSTIC REASONING IN ENGINEERINGDESIGN: CASE STUDIESDavid Crismond, The City College of New York Dr. David Crismond is an Associate Professor of Science Education at the City College of New York. He received his masters degree in 1992 from MIT’s mechanical engineering department, and earned his doctorate in Human Development and Psychology from the Harvard Graduate School of Education in 1997. His career in education has included public school teaching, developing engineering design-related interactive multimedia materials at MIT, and design-oriented science curricula at TERC and Georgia Tech. He has been Principal Investigator for the NSF-funded
academic research in their discipline early in their college careers.2 CSI studentsparticipate in a variety of projects with research teams throughout the College of Engineering.The students worked in labs, testing facilities, and on their own to learn what academic researchis like. The CSI Program is one of six initiatives that are funded by STEP. STEP (Science,Technology, Engineering, and Mathematics Talent Expansion Program) is supported by theNational Science Foundation’s STEM (Science, Technology, Engineering, and Mathematics)Talent Expansion Program.The modifications to the existing wind tunnel facility take the form of test section inserts, whichcan be constructed from inexpensive materials to form a wide variety of different nozzle
academicsupport services. These offices include:‚ Academic Advising Center‚ Learning Center‚ Registrar‚ Information Technology Services‚ Personal Counseling‚ Career CounselingA few days prior to the exercise, I visit each of these offices and coordinate the details of thetreasure hunt with the staff person in charge of each area. I place a wall-hanging envelope,marked “SUR 100S Treasure Hunt.” Each envelope contains “information sheets” on each areathat describes the student services provided by the office. This past year, I simply printed thehome page of the Web site for each office on blue sheets of paper, and made them theinformation sheet. I also asked each office staff person to make available additional informationsheets that they typically provide
Ohio State returned as Engineering students for Autumn 2007(compared to 92.4% for all majors and the national average of 77%, all majors). Anecdotally,faculty teaching upper level courses report that students who have completed the first-yearsequence are highly motivated, excited about engineering as a career, and better equipped toattack the challenges of upper-level courses.The first-year engineering program at The Ohio State University consists of two tracks, taken byall first-year students: a standard track and an honors track, with approximately 75% of studentsin the standard track. The standard track consists of two courses totaling six quarter-hours credit,and the honors track, three courses totaling twelve quarter-hours credit. Both
% without any decrease in effectiveness. The necessity for alternativeenergy systems is evidenced by the offering of $1 million as the top prize.[7]Energy Education at West PointThe United States Military Academy (USMA) at West Point is the oldest engineering institutionin the nation, founded in 1802 as means to educate future officers in the art of military tacticsand engineering. The mission of the USMA is: “To educate, train, and inspire the Corps of Cadets so that each graduate is a commissioned leader of character committed to the values of Duty, Honor, Country and prepared for a career of professional excellence and service to the Nation as an officer in the United States Army.” [8]There are over 4,000 undergraduate students studying
goal of our study, it is important to note that this module is not intendedto compete with or take the place of a thorough education in engineering ethics and ethicalproblem-solving. Instead, we are presenting this method as a means to achieve ethics across theengineering curriculum, particularly in our research-based institutional context. Integratingethics discussions throughout the engineering curriculum reinforces to students that ethics andengineering are closely intertwined, and helps to prepare them for the decisions they will make intheir future careers. The success of the DISORDER module encourages us to continue offeringit in our own courses, and the feedback from faculty suggests that expanded use throughout theengineering curricula
additional opportunities for minor refinements to the course.ConclusionsWith the rapid emergence of diverse computing architectures in recent years, we were motivatedto introduce to the undergraduate curriculum topics such as reconfigurable computingtraditionally taught at the graduate level. Also, with the proliferation of multicore architecturesthe skills for writing parallel software needs to be developed in our students for their success intheir future engineering careers. The new course aims to address these goals by exposingcomputer engineering seniors to a variety of topics including hardware design using VHDL,FPGA design flow and interfacing, data parallel algorithms, and high performance computingapplications. After having taught the new
class to participate in one of theESW activities at the school or in the community. Such an endeavor could potentially help to Page 14.1155.9encourage more students to pursue a college career in a STEM discipline whilst buildingcommunication, leadership and mentoring capacity of college students.ConclusionThis project also has the potential to expand to other courses across the university with theinclusion of sustainability concepts. These include undergraduate laboratory courses in biology,environmental microbiology, and water resources engineering. The convenience of the ponds forsampling coupled with their importance in floodwater and water
thermodynamics. In addition, they complete a mid-term design project and a finaldesign project as part of a team and give an in-class oral presentation on each. This course isalso complemented by GE 199, a required zero-credit seminar course that meets once a week andfeatures a series of guest speakers to help the students understand the field of engineering.It was decided that one of the existing modules in this course (Communication System Design)should be replaced by a module on entrepreneurship. Introducing the concept this early in thecurriculum and across all engineering disciplines provided a unique opportunity to encourage allengineering students to begin to think about entrepreneurship from the beginning of theirengineering careers
decreased output), solve the problem” • An ability to design a system with multiple constraints • An ability to technically communicate Evaluation of Outcomes The main assessment tool for quantitative evaluation included two rubrics (Appendix A) modified and designed for this particular course. The first rubric was used to score Projects 1-4; the second rubric was used to score the final project and poster presentation. The faculty review and grading of design projects reflected this rubric, and evaluated outcomes and student progression in demonstrating the abilities most important to long- term career success (note the emphasis on technical communication skills in the
subfactors identified through factor analysis14; each subfactor isin turn comprised of individual items. The constructs include:- Motivation, consisting of 25 items in four subfactors: Control, Challenge, Curiosity and Career.- Metacognition: consisting of 20 items in four subfactors: Planning, Self-monitoring/Self- Checking, Cognitive Strategy and Awareness.- Deep Learning, consisting of 10 items in two subfactors, Motive and Strategy.- Surface Learning, consisting of 10 items in two subfactors, Memorization and Studying.- Academic Self-Efficacy, consisting of ten individual items that do not form specific subfactors.- Leadership, consisting of 20 items with four subfactors, Motivation, Planning, Self- Assessment and
learningexperience.The first question investigates how beneficial is the competition for students’ professionaldevelopment and future career as an engineer. Students’ comments range from: “a chance todevelop a portfolio” to “take on a project without guidance from the instructor” and learningfrom mistakes. Suggestive examples of students’ comments:“This project gave me a better approach on how a design should be implemented as I learnedfrom my mistakes.”“I found out that an initial architecture can fail if you don’t know the hardware capabilities.”The second question investigates in which area the students think that they improved theirunderstanding and engineering abilities: Hardware-digital, Hardware-analog, Software-HDL orothers. The majority of students
level of competence during professional career, because engineeringknowledge becomes old very soon. Therefore, it makes sense to develop and stimulate thecognitive interest of students, form the skills, and use necessary information independently.The third is a contradiction between the principles of knowledge unity and dividingknowledge into fundamental and special. This problem is directly connected with formingprofessional competence of the future specialists. On the one hand, students have to knowfundamental subjects perfectly in order to become proficient. On the other hand, deepeninginto fundamental knowledge shifts the accent of student preparation and reduces time forstudying special subjects which are the basis of professional
opportunity to work in the faculty mentor’slaboratory. eight out of twenty two students were successful in securing a research opportunity ina laboratory. Students worked as researcher assistants in laboratories on a variety of projects,such as stem cells, speech recognition, and tissue regeneration. The goal was to expand theirknowledge in the research fields in their departments and train students on professionalcommunication.During the program three guest speakers were invited, experienced scientists and engineers, totalk about their career experience and the variety of opportunities for students once they aregraduated. The guests were; Dr. Charlene Crawley, a chemistry professor at VCU; Mr. TonyMoss, a mathematician at Dahlgren NSWC; and Ms
Figure 3: RRPL Participation Statistics in Fall 2008Most of the SHSU students had prior RP experience although TTU-BE students had extremelylow experience in RP technologies. As can be seen from Figure 4 almost 85 percent of allstudents had NO prior RP experience. So, RRPL was an excellent learning experience for thesestudents. Figure 4: Students Former RP experienceIt was very interesting to see how students feel about their future careers after the RRPLpractices. As can be seen from the Figure 5, the majority of the survey responses was in Medium Page 14.1020.9and High ranges. This was an excellent indicator that RRPL
punishing them” (Nissenbaum 1999 Para 6)11. In the online environment sincepeople may feel safer to express themselves, they may also feel safer to cheat. A research studyreported, college learners “…appeared to believe that cheating on an exam is different fromcheating to advance their career…and that college activities were not real-world” (Rawlinson &Lupton, 2007, p. 91)12. Learners who cheat in a face-to-face course, will likely cheat in an onlinecourse. Lanier (2006) stated the main form of cheating [among college students] is plagiarismand that as faculty our role is to educate them on the ethics of cheating” (p. 259)13.Instructor Responsibility and he Teacher as ModelIn the online environment the responsibility for an instructor to
recorded each day. The success for eachstudent can thus be tracked and measured against his/her attendance in the class. Data will beavailable for the class as a whole and on the individual level.The courses have been carefully selected to give a representation of the various classinstructional modes seen by Engineering Technology students (lecture-nonmathematical, lecture-mathematical, lecture/lab, lecture/demonstration). The project is also being conducted using fourseparate instructors who have agreed to participate in the project research. The use of more thana single instructor is an attempt to enable a more representative sample of the type of instructionthat a student experiences during his/her academic career at the university. This use of
high school students’ interests in pursuing science and engineering as their fields of study and careers, and to enhance the research experiences for the in-service high school teachers in science and technology areas so they can bring the knowledge and experiences back into their classrooms. Keywords: Project-based learning, K-16, Education Methods, Innovative Classroom Practice. 1. MOTIVATION Our outreach effort addresses the inadequacy of high school students in math and science literacy in the United States. According to [3], U.S. high school seniors ranked below their counterparts in 17 other countries in math and science literacy. In physics, U.S. high school seniors scored last among 16
. This leads me to believe the students may focustheir efforts on communication throughout their careers, making them better engineers in theprocess.Many of the students did not seem to have a grasp on varying engineering principles or social issues.While not a major concern since it is a freshman class, it is nonetheless a concern. I was surprisedthat none of the answers to this question were the project’s intent to gain interest in engineering dueto the lack of engineers in society. A possible solution may be as simple as giving examples of someengineering principles and social issues in the question. Another solution may be to integrate othersocietal issues throughout the project. I would like to point out it was not surprising
practical application, especially the two female students who were interesting inpursuing future career in the medical field. One of the students, in response to a post-project survey,attached a statement: “My experience working on the injection trainer project was wonderful. I enjoyedevery part of the project starting with the problem solving, going through the design and finishing withthe presentations. It was a great experience to work on a provisional patent and creating somethingnobody has ever created before. This project gave me great experience in prototypical product design,and I would be glad to work on it or any project like it again.”The student learning outcome assessment results are summarized in Figure 11, where for all the
received his PH.D. in Electrical Engineering from University of Illinois, Chicago, in 1991, M.S. and B.S. also in Electrical Engineering from I.I.T. Kanpur, India in 1970 and 1968 respectively. Professor Agrawal has worked recently for two years in optical networking industry in the Silicon Valley in California. Professor Agrawal is the Founder Advisor to Agni Networks Inc., San Jose, California. His expertise includes optical networking at Physical and Data link layers, optical and WDM interface, SONET and Gigabit Ethernet and analog electronic systems. He is the author of a Textbook in Power Electronics, published by Prentice-Hall. His professional career is equally divided in