ofPennsylvania Career Services and available on the World Wide Web. According to the 2011survey results of newly graduate students, only 17% of the University of Pennsylvania 2011SEAS graduates entered in engineering careers who went for fulltime employment (excludinggraduates pursuing further studies or seeking employment). The 2011 report collected data fromDecember 2010, May 2011 and August 2011 SEAS bachelor’s degree recipients. Based on thissurvey, engineering career is further broken down into five categories such as research anddevelopment (36%), design (25%), project management (22%), manufacturing and production(11%) and quality assurance (6%). Percentages of the University of Pennsylvania SEASgraduates entering in engineering careers after
other and the instructor and that they have a positive sense of thediversity of experiences and who might take an engineering class and that there is not anexpectation of prior expertise.II. ResultsThe results presented here review data from the past two years. This initial data review will helpto refine the survey questions as well as how to code various aspects of the response, which aredone by hand, on paper and generally open-ended. Some students write more, while others arevery terse. There is also some uncertainty in how the students understand some of the surveyquestions and so they may not think to mention certain play experiences as being relevant (e.g.building blocks). It also appears that some students are more or less able to name
more than seemed manufacturing methods such as might be possible in thepossible at the outset. But how do we put developing worldthat motivation in place?To inspire a team to excellence, it is imperative that the project topic be carefully chosen, as thetopic is the genesis of the student’s efforts. Broadly, teachers should turn to well-researched ba-sic principle, such as the 15 principles listed by Wankat and Oreovicz “What Works: A Com-pendium of Learning Principles” [2]. The authors believe that the creation of successful projecttopics should follow three key principles: 1. The project must be rigorous but within the student team’s capabilities, 2. The students must feel that the project matters, and 3. The topic
program engages in outreachactivities that encourage schools to invite our representatives into their classrooms to partnerwith them and also by allowing secondary education students to shadow with professors. Thisrelationship results students in becoming more aware of the numerous aspects of the constructionindustry, its changes, and the career opportunities available to them. The initiatives areoutstanding examples of a win-win relationship for a university program, secondary educationand more importantly the students. This paper also shows that through the relationship betweenthe university program and secondary education high schools also have recognized Penn StateHarrisburg’s construction degree as an exceptional
ghengineeri students to succeed. The two da competitio as well as in-class tes ing ay on s sting required thestudents to use an iteerative design process if they wanted to be succe n d essful. Betwe the first and eensecond d of the com day mpetition, m many teams d discovered fl flaws in their initial desig and corrected r gnsthese flaw before th final day o
AC 2011-432: ASSESSING AND IMPROVING A CAPSTONE DESIGN SE-QUENCE WITH INDUSTRIAL PROJECT MANAGEMENT TECHNIQUESStacy S. Wilson, Western Kentucky University Stacy S. Wilson is a professor in the Electrical Engineering Program at Western Kentucky University. Her research interests include controls, system identification, and wavelets. She is actively involved in the assessment process.Mark E Cambron, Western Kentucky UniversityMichael L. McIntyre, Western Kentucky University Page 22.230.1 c American Society for Engineering Education, 2011 Assessing and Improving a Capstone Design
| Seattle | WAPractical applications:One of the reasons that global environmental issues are so difficult to solve is the complexity ofenvironmental problems. While their complexity also contributes to the challenge ofincorporating these issues in the classroom, it allows for rich educational experiences connectingtopics within biology and connecting biology with chemistry and engineering. This moduleengages students in hands-on lab activities, a virtual lab, and an engineeringdesign activity. The initial activities are very structured, much like traditional lab investigations,while the later activities are more open. The engineering design activities are related toatmospheric carbon dioxide and require students to apply and synthesize concepts
8:00 A.M. – 5:00 P.M. Sheraton Seattle | Seattle | WAPlease provide a one-paragraph bio for each presenter (in the order listed above). The bio shouldnot exceed 70 words and should be written as you would want it to appear on the ASEE websiteand program materials.WILLIAM SCHELL (PE, PEM) is an Assistant Professor of Industrial and Management SystemsEngineering at Montana State. He earned his PhD in Industrial and Systems Engineering from theUniversity of Alabama - Huntsville. During more than fourteen years in industry, he held positionsfocused on process improvement and organizational development with Fortune 50 and Inc. 500companies, designing and implementing many large scale change initiatives to improve
AC 2010-1823: TWO TECHNIQUES FOR EFFECTIVELY PRESENTINGINFORMATION IN THE CLASSROOM WITH MULTIPLE TABLET PCSJames Lewis, University of Louisville James E. Lewis, Ph.D. is an Assistant Professor in the Department of Engineering Fundamentals in the J. B. Speed School of Engineering at the University of Louisville. His research interests include parallel and distributed computer systems, cryptography, engineering education, undergraduate retention and technology (Tablet PCs) used in the classroom. Page 15.1283.1© American Society for Engineering Education, 2010 Two Techniques for Effectively
arenow working to push the speed envelope to the next great frontier, that of hypersonicspeed. From the classic design of the first aircraft to the more futuristic design of theWaverider (X-43) that uses its own shock wave to improve its overall performance, allneed wings and empennages to assure stability and maneuvering during flight. At theearly conceptual design stage it is often necessary to obtain initial estimates fordivergence and flutter, when only the basic geometry of the wing/tail surface are known,and much of the structural and aerodynamic properties are yet to be established1.Parametric studies to determine the effect of varying some of the structural-aerodynamicvariables on the flutter instability boundary are convenient. The
Material Condition (MMC).Four steps are proposed to accomplish the task: (1) creation of two-dimensional (2-D)initial template files, (2) generation of hierarchical folders for the template files, (3)creation a 3-D gage model from a specific template file, and (4) dimensioning andgeneration of the gage drawing. Results show that, by following this approach, studentscan effectively generate correct engineering drawings for functional gages.1. Introduction of GD&T and Functional GagesIn the engineering drawing design, GD&T is a means of specifying engineering designand drawing requirements with respect to actual “function” and “relationship” of partfeatures. If the technique of GD&T is properly applied, it will ensure the mosteconomical
the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright @ 2005, American Society for Engineering Education”A documented process by which the objectives are determined and periodicallyevaluated based on the needs of the constituencies served by the program.Note:CTAS- College of Technology andApplied SciencesCEAS- Fulton School of Engineeringand Applied Sciences Figure 4: Electronics Engineering Technology Road Map processPrior to implementing any changes data will be gathered from stakeholders, marketpriorities will be reviewed, and curriculum changes will be initiated by faculty groupswith input from the Industry Advisory Council. Over the last eight months the
& Exposition Copyright © 2004, American Society for Engineering Educationprogram and returned for the second year. This suggests a problem of self-selection inwhich the program attracts student participants who are already inclined toward bothInformation Technology and attending college.The participation of female students in SAIT is shown in table 2. In the 2002 programabout 44% of participants in the 2002 program were female. In the 2003 program, 45% ofthe initial registrants were female but only 35% of the attendants were female. A femalefaculty member participated in the 2002 program, but she was not available in the 2003program. One of the undergraduate student helpers was female for both the 2002 and2003 programs
there were no negative comments on both the PLC and theseminars. This is expected since students are not required to participate in the PLCactivities. They come to the tutoring help only if they need help and they come to theseminar only if the topic is interesting to them. The absence of negative commentsindicates that the delivery of the activities met students’ expectations.With the help of the PLC, 50% of first year computer science technology students didfinish their programming sequence on time. This is compared to 2.4% in the previousyear when the PLC was not available.The PLC initially aimed at making the service available to the students so they are morelikely to utilize it. This included both make it available at convenient times as
companies, e.g. Fisher Scientific. The experimental set up is shown in Figure 1. Figure 1. Experimental apparatus to study the structure of a DC glow discharge in a long tube. A DC voltage in the range of 250 volts is applied to the terminals of a fluorescent tube. The tube is half-coated to allow viewing of the plasma inside the tube. The uncoated end should be connected to the negative terminal of the power supply and the terminal at this end will serve as the cathode. A Tesla coil is used to initiate, or strike, the plasma. The plasma produced by excitation of the argon-mercury gas mixture in the tube produces a visible structure. At the cathode, the cathode glow is visible followed by
(Air Liquide, Michelin, L’Oréal, Pechiney…)· energy (TotalFinaElf, nuclear energy…)· technology (Alcatel, Alstom, Dassault, Sagem, Thomson…)· communications (Hachette, Havas, France Télécom, Vivendi…)· food/drink (Lyonnaise des Eaux, Pernod-Ricard…).Excellence in engineering education· strong scientific and technological course content· world-renowned laboratories, teachers and researchers (the “Fields Medal”, the equivalent of the “Nobel Prize” in mathematics, has almost found a permanent home in France)· engineering courses in France generally also include elements of the social sciences and training in management.Industrial involvement· engineering programmes in France include training-periods in industry which are integrated
Multimedia Lessons for Education," 1996 American Society for Engineering Education Annual Conference Proceedings.2. Green, R.A., and Huddleston, D.H., "Changing the Engineering Undergraduate Experience by Appropriate Use of Computer Technology," 1998 ASEE/IEEE Frontiers in Education Conference.3. Chin, R.A., and Frank, A.R., "The Multimedia Instruction Initiative: Implications for Engineering Education," 1996 American Society for Engineering Education Annual Conference Proceedings.4. Griffith, M.L., Lamancusa, J.S., Engel, R., Jorgensen, J.E., and Valdez, J., "Multimedia Courseware to Enhance the Classroom Experience," 1997 ASEE/IEEE Frontiers in Education Conference.5. Niemicec, R., and Walberg, H., "Comparative
Hazards identification and risk assessment Process diagrams HAZOP Fault tree analysis Probability Inherent process safety Risk management strategy Design approaches Page 7.291.5 Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ® 2002, American Society for Engineering EducationObservations about the Initial Course OfferingThe new course (ChEn 311) was offered for the first time fall semester of 2001 to a large classconsisting of juniors and seniors. Although assessment of the effectiveness
market needs. Once the gaps have been identified,towards a resource and process-oriented organization. they are then divided into:This, in turn, creates bureaucracies hampering thespeed needed to get the product to market. 1. Technological 2. IntegrationSeveral years of research have been conducted to 3. Businessunderstand the fundamental differences in productdevelopment processes that are used by many Technological gaps are those opportunities that aremanufacturers. The final conclusion was that most of created by the introduction of new technology within thethe processes of product
Academy students andgraduates approximately 125 ABET accredited Systems engineering majors per year. The ten-fold increase in Systems department enrollment since moving to Maury hall in 1976 required aninnovative facility design to provide the most laboratory, classroom, and design project supportspace within the existing building structure.During the 1999-2000 academic year, the joint Systems and Electrical Engineering departmentrenovation committee performed a requirements driven study. Initial steps included therequirements questionnaire summarized in Appendix A and the formation of subcommittees tostudy: • Temporary swing space facilities • General facility design • Lab-classroom designConcurrently, a pilot “classroom-of-the
Engineering Education Annual Conference & Exposition Copyright © 2002, American Society for Engineering Education During this time you can choose and learn the software you will use and prepare the initial slides required for the course. 2. If you want to use RealPresenter or a similar streaming media system, be aware of Figure 7: Introductory Screen for an EET205 Presentation the bandwidth requirements of students who do not have a fast Internet connection. Some students with standard telephone modems (<=56k) will have difficulty receiving the streaming media without interruptions and delays. Also, for a Streaming media presentation, ensure that you have backup methods for students who cannot
networks anddebug difficult situations using Net Probe’s packet generator and capture capability. Inaddition, the use of programmable alarms which sound when user-defined situations occuralleviates the need for constant monitoring making for a very interesting lab experience! Another interesting network analyzer we have used in our computer networking lab isEtherpeek [7], an Ethernet network traffic and protocol analyzer designed fortroubleshooting and debugging mixed-platform, multi-protocol networks. It has diagnosticand analysis capabilities, protocol, and summary statistic over time, and IP subnet filteringusing CIDR notation. These capabilities normally far exceed the students' initial introductionto the topic of network analysis
in the text. • NLPC. Introduces three major concepts: 1. Extends the LPC model so that the Na+ current has a voltage-dependent instantaneous activation. The resulting model demonstrates threshold and bistability, with the two stable states roughly corresponding to the rest and peak of an action potential. 2. Voltage-dependent gating variables and their dynamics in response to a voltage change. 3. Extends the NLPC model so that the Na+ also has a voltage- and time-dependent inacti- vation. This model initially possesses a response similar to the model without inaction, then the inactivation of IN a returns the cell to rest. This introduces the concept of
boardfabrication, applied computer programming, and simulation tools. The intent was to enablestudents to use as many tools as possible to enrich their physical intuition.The course text book [3] provides detailed construction for assembly of the robot, the primarycomponents of the basic Stiquito are available in the kit form. In spite of this, the kits havelimitless flexibility and expandability (Figure 1). In fact, this robot and its variants have beenused in research efforts studying such subjects as evolving walking strategies [4], hardware /software design [5] and robotic colonies [6]. The text contains a chapter entitled “EngineeringSkills and Design Process” which provides an excellent overview of the engineering process,including creative
this lesson allowedstudents to engage in completing hands-on activities and further enhanced their learning and un-derstanding of social studies concepts.AcknowledgementsThis research was supported by the National Science Foundation’s Innovative Technology Experiences for Studentsand Teachers (ITEST) program under award numbers DRL–1949384 and DRL–1949493. Any opinions, findings, andconclusions or recommendations expressed in this material are those of the authors and do not necessarily reflect theviews of the National Science Foundation.References1 Enz, T. 2019b. Artificial Intelligence at Home and on the Go: 4D an Augmented Reading Experience. The World of Artificial Intelligence 4D Series. Capstone. ISBN 9781543554748.2 Enz, T. 2019a
Paper ID #44625Fault Recognition and Mitigation in Food Processing EquipmentDr. David R Mikesell P.E., Ohio Northern University David Mikesell is the Ella A. and Ernest H. Fisher Professor of Mechanical Engineering at Ohio Northern University. He joined the faculty after graduate work in automotive engineering at Ohio State, six years designing automated assembly machines and metal-cutting tools, and service as an officer in the U.S. Navy. His research interests are in land vehicle dynamics, autonomous vehicles, manufacturing, and robotics. Since 2015 he has served in leadership of the ASEE Mechanical Engineering Division
idealteaching tools. Furthermore, the AASHTO Guide Specifications for Design of PedestrianBridges represent a manageable introduction to formal engineering design for a semesterlong project. This paper describes a one credit hour, semester long, project undertaken byMArch students alongside a required course in Structural Engineering Design. Studentsundertook conceptual design of pedestrian bridges. After a class wide study of innovativeprecedents, they worked in small groups and were required to choose and analyze a site,and propose an initial structural scheme. A minimum clear span was required to pushmore ambitious spanning strategies. They then performed a Finite Element Analysis andsized all the primary structural members of the bridge. The
AC 2011-2029: USE OF POWER WHEELS CAR TO ILLUSTRATE ENGI-NEERING PRINCIPLESDr. Howard Medoff, Pennsylvania State University, Ogontz Campus Associate Professor of Engineering, Penn State Abington Research Interests include Gait Analysis and Friction Characteristics of Human LocomotionRobert L. Avanzato, Pennsylvania State University, Abington Bob Avanzato is an associate professor of engineering at the Penn State Abington campus. Page 22.1595.1 c American Society for Engineering Education, 2011 Use of Power Wheels® Car to Illustrate Engineering PrinciplesAbstractIn order to illustrate engineering
AC 2011-2858: VIDEO LECTURE CAPTURE IN ENGINEERING CLASS-ROOMS WITH FREEFatih Oncul, Southern Polytechnic State University Fatih Oncul is an assistant professor of civil engineering technology at Southern Polytechnic State Uni- versity in Marietta, GA. Dr. Oncul received his doctoral degree from University of Colorado at Denver in 2001. His Ph.D. thesis was on ”Seismic Interface Stability of Composite Dams”. He taught at Fairleigh Dickinson University in Teaneck, NJ until 2008. His current research interests are: Subsoil investigation, seismic soil-structure interaction, liquefaction, numerical modeling of geotechnical engineering struc- tures
AC 2011-1323: ENGINEERS ON WHEELSKauser Jahan, Rowan University Dr. Kauser Jahan is an Professor of Civil and Environmental Engineering at Rowan University, Glassboro, New Jersey. She completed her Ph.D. studies in the Department of Civil and Environmental Engineering at the University of Minnesota, Minneapolis in 1993. Dr. Jahan is a registered Professional Civil Engineer in Nevada and is actively involved in environmental engineering education and outreach for women in engineering. Her research interests include sustainability and teaching pedagogy.Krishan Kumar Bhatia, Rowan University Page 22.610.1