Preliminary Investigation into Providing International Experience through Studying Abroad for Engineering Technology Students Gary D. Steffen, Iskandar Hack Indiana University-Purdue University Fort WayneAbstractA preliminary investigation is currently ongoing to provide international experience forengineering technology students at Indiana University Purdue University Fort Wayne (IPFW).This would consist of a small group of students from the Electrical and Computer EngineeringTechnology Department (ECET) teaming up with a similar group of students from University ofKuala Lumpur (UKL) in Malaysia. These student groups will work on a joint design project in aclassroom setting
; product designprocess; introduction to engineering drawing standards and graphics; 3D, CAD modeling;graphical projections; sectional views; dimensioning and tolerancing; mechanical and physicalproperties of materials; metal, polymer and electronic processing; and integration of design,manufacturing and environmental considerations.How should the course be developed? Course development works best when faculty who mightteach the course are involved. The University wanted one section taught by IE faculty and oneby ME faculty. Manufacturing is often not perceived by engineering students and faculty as themost exciting course area, especially when compared with other engineering opportunities.Additionally, in research-based universities, courses that
projects are inspired bystudents’ upper level electives. Ideally students would develop a detailed mathematical model oftheir system and use this model for simulation, performance prediction and control system design.Since it is a device of their choosing, it is unlikely that they have had prior classroom exposure to allthe device’s components. Page 10.1037.1Despite the fact that students have learned to model basic systems and develop transfer functions andstate space models in their Junior year, it is rare that a group applies these principles to their senior “Proceedings of the 2004 American Society for Engineering Education Annual
context of the region where engineering solutions willbe implemented. Because these courses are not offered every semester, the PGE also permitscourses that allow a student to independently focus on cross-cultural issues. Students can use anIndependent Study option to work with a faculty member whose research involves working withinternational colleagues, suppliers, etc. Strict guidelines for the independent study project havebeen developed (how much interface necessary with international counterparts, plans forpersonal goals on improving skills, and a reflection paper) to ensure that the student gains insightinto cross-cultural challenges. One other option is for students to take part in an EngineeringCross-Cultural Training Series. This option
Using Wikis and Weblogs to Support Reflective Learning in an Introductory Engineering Design Course Helen L. Chen1, David Cannon2, Jonathan Gabrio, Larry Leifer2, George Toye2, and Tori Bailey2 Stanford Center for Innovations in Learning1/Center for Design Research2 Stanford University, USAAbstract An observation and a pedagogical challenge often found in project-based design coursesis that students see what they have produced but they do not see what they have learned. Thispaper presents preliminary findings from an NSF-sponsored research project which experimentswith the use of weblogs and wiki environments, two
experience.Multiple instructors have effectively used the process to assign valid grades to team members inintroductory engineering design and physical science classes. All of these courses featurecooperative learning activities and open-ended projects throughout the term.IntroductionThere are numerous methods that have been used to determine team scores. The methoddescribed in this paper engages the entire team with the instructor or graduate studentcollaboratively to determine a team midterm or final grade. It takes about thirty minutes per teamto complete.The team interview session is a formal process that is designed to measure soft skills such asparticipation, communication and team process. Individual elements include sharing theworkload; participation
The Minority Engineering Transfer and Articulation (META) Program: Building Stronger Pathways and Developing Student Achievement Ricardo B. Jacquez, Jeanne Garland, J. Phillip King, Michele Auzenne, Steven Peralta, and Hilario Rubio New Mexico State University/ Santa Fe Community College/ And Luna Community CollegeAbstractThe Minority Engineering Transfer and Articulation program (META) is a 36-month project thattook place between 2001 and 2004. The program is a cooperative effort between communitycolleges, New Mexico State University (NMSU), and
. and Ph.D.degrees in Biomedical Engineering, a joint M.D./Ph.D. through the Wake Forest UniversitySchool of Medicine, and a joint D.V.M./Ph.D. through the Virginia-Maryland Regional Collegeof Veterinary Medicine. Given that students may take face to face classes on either campus orclasses via distance learning while residing on their home campus in either Blacksburg orWinston-Salem, new instructional technology solutions and infrastructure are required to supportthis initiative. A project team, consisting of members from Wake Forest and Virginia Tech, wasestablished to develop this innovative learning environment. A key feature of this learningenvironment is the ability for the professor to easily interact with students using multiple types
Session 1526 Using Real-Time Sensors in the Engineering Classroom: The Ongoing Development of an Engineering Education Experiment Matthew W. Ohland and Elizabeth A. Stephan General Engineering, Clemson University, Clemson, SC 29634AbstractClemson’s NSF-sponsored EXPerimental Engineering in Real-Time (EXPERT) project isinvestigating the effect of using real-time sensors on student learning through graphicalrepresentations of various physical concepts and to facilitate learning the concept itself. Thispaper will address the development and adaptation of the experiment as a model for otherengineering
, is addressing the problem. If successfully passed throughCongress, the President’s budget will put much needed financial incentives in place to combatthe low numbers of Hispanics in education.This paper will address: the current U.S. population and education statistics, the trend of someminority groups to obtain higher percentages of both bachelor and engineering degrees over theHispanic population, the next-generation of college students, the projected future populations, thePresident’s actions, and some possible solutions to increase the numbers of Hispanic students inthe engineering field.Current U.S. Population Figures, Including Minority PopulationsAccording to the U.S. Census 2000, minorities constitute 29% of the total U.S. population
our own exper-tise in this field. However, the approach described in this paper can easily be modified for otherengineering programs, on any novel content, by suitable choice of experiments. We would like to note that the approach described in this paper is certainly not a substitutefor a full-fledged degree program, however, we believe that it has significant potential in reduc-ing the shortfall for qualified BME professionals, since it can be easily implemented by any oneof nation’s over 300 electrical, 270 mechanical, 160 chemical or other interested engineeringprograms. Our project whose primary goal is to achieve the above mentioned paradigm for integrationof BME concepts in the ECE curriculum has recently been funded by the Course
data are more difficult to create and/orcollect on limited budgets, with limited person power and a lack of easily accessible assessmentexpertise. As important, the collection of pre-college outreach activity participant data todetermine whether participants go on to matriculate in engineering or of cohort data on who isretained in the engineering curriculum and who is not are often not done systematically orcollected and not analyzed. (5)Finally, a major barrier to undertaking effective assessment is a lack of recognition of the valuegood assessment adds. In fact, assessment well done becomes the basis for a systemic approachto program development.Assessing Women in Engineering ProjectThe AWE Project (HRD 01 20642) (6,10,11) addresses the
enhancedlearning environment 1-9.Over the course of the two week institute, a series of building/programming projects werecompleted using the Legos® and ROBOLAB. These projects were arranged in order ofincreasing complexity and were normally done in teams of two. Typically, the projects werebroken into three parts: 1) “lecture” time was devoted to introducing the hardware and softwaretools needed for that project, 2) the K-12 teachers worked on the “implementation” and 3) eachteam was given time to “demonstrate” their project and to share specific difficulties andsuccesses. The content lectures (item 1 above) were given by UTA professors who haveextensive knowledge in the area of design as well as with the Lego® products and theROBOLAB software. The
equal in magnitude and opposite in direction with minimal discussion) (student/group) Hands-on demo of equilibrium of forces in 2-D space (student/group) Beyond Activities: These activities should be designed to encourage students to use their new knowledge of the nature of forces within the broader context concepts of the balancing requirements of force equilibrium and of engineering design: Paper solution for a simple force equilibrium design problem in 2-D space (group project) Class discussion of each group’s paper design Physical fabrication of paper design (group project/group discussion) Class discussion of each group’s
Session 1526 Integration of Computer-Based Electronics Laboratory into a Control Systems Course Julio Garcia and Patricia Ryaby Backer San José State UniversityAbstractThe goal of this project is to adapt the work of other researchers to improve the delivery ofelectronics lecture and laboratory content in the Electronics & Computer Technology (ECT) areaof the BS in Industrial Technology at San Jose State University. There are several otherdemographic factors that serve to make the delivery of instruction challenging for thedepartment. Approximately 70% of
courseengineering design project (EDP) and simultaneously assess Engineering and Technology Goalaccomplishment, grading was performed through the use of a computer spreadsheet into which astandardized cut sheet was incorporated. The spreadsheet shown in Figure 1 directly mappedeach requirement of the (EDP) (e.g., base camp layout, road design, schedule) to one or more ofthe 12 assessment indicators. This mapping included weighting factors that accounted for theextent to which a given indicator represented the various requirements of the EDP. For example,a score of 5 was attributed to the relationship between design requirement 2b (Design and Layoutusing GeoBEST) and indicator 3 (Determine information). This maximum weight shows there isa high correlation
, “Project Planningand Development” (2 semester credits). This course focuses on the development of projectmanagement skills using project-based activities to excite and motivate freshman. This paperwill present the feedback control projects tied to the development of good project developmentskills, and provide a review of the concepts introduced including proportional, integral & Page 10.828.1differential control. The course is broken down into two major projects during the semester. A “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American
Laboratory classes. Through our use of new materials and assessment instrumentssupport our thesis that will lead to student improvement in the defined areas of weakness. Theintegration of peer review strengthens teamwork and professional attitude both in the classroomand later in the students’ professional lives. We have used interdisciplinary collaboration asanother component to help develop analysis and reasoning skills by utilizing field trips tomanufacturers who have quality control and project management programs. Our feedback system in scoring student reports will likely strengthen their technicalwriting skills. This works as follows: The group consists of one author and two to threereviewers every week. The roles alternate. The author
Mentoring Graduate Students In Engineering Education Through Team Teaching Jamie Phillips and Timothy Murphy The University Of Michigan, Ann Arbor, Michigan 48109AbstractThe preparation of science and engineering graduate students for careers in academia is ofconcern due to the lack of formal professional training in teaching required for new science andengineering faculty members. In this paper, a team teaching project resembling a teachinginternship is described. An undergraduate electrical engineering course was team taught by afaculty member and graduate student in the goal of preparing the graduate student for a futurecareer in academia. The
MITEy Rocket Design Project & Assign Teams (1 hour) Monday • Work on MITEy Rocket Design Project (5 hours) • Electrical Engineering Workshop (1 hour) • Biomedical Engineering Workshop (1 hour) • Introduction to SHPE & NSBE Student Organizations (1 hour) Tuesday • Work on MITEy Rocket Design Project (4 hours) • SAT Workshop (1 hour) • UT Freshman Admission Presentation (1 hour) • Aerospace Engineering Workshop (2 hours) • Civil Engineering Workshop (1 hour)Wednesday • Work on MITEy Rocket Design Project (3 hours) • Admission Application (Essays & Resume) Workshop (2 hours) • UT Financial Aid
on Georgia Tech’s NSF-sponsored project tobring workplace communication into a Technical Communication course. Personal interviewshave been conducted with computer science engineers; supervisors; and senior executives. Theresults of the interviews have been used to tailor Technical Communication to the computerscience discipline. These findings will be described along with the course content andpreliminary student assessment data.I. IntroductionGeorgia Tech is engaged in a collaborative effort that combines approaches from the College ofComputing (CoC), the School of Literature, Communication and Culture (LCC) and a workforcecommunication project originated in the School of Industrial and Systems Engineering. The goalis to integrate the
standing. .In the MEEN 381 course, each student had the opportunity to present two projects. Inthe sample, there were 17 women, all of whom presented two projects, and 83 men,two of whom only presented one project. Of the women, 7 were seniors, 9 juniors, and 1sophomore. Of the men, 2 were master level students, 27 seniors, 50 juniors and 4sophomores. The master level students were seniors allowed to take graduate coursesfor credit. Table 3 Distribution of Categories of Topics Chosen for Presentation in Fall 2004 MEEN 381 home & human intern vehicles hobby engines energy structures materials body
computer (either desktop or laptop) can outfit a personalrealtime DSP lab at little or no cost.A DSP course should be about DSP and implementing DSP functions, not about the nuts andbolts of DirectX® programming. The student is relieved from having to become a DirectX®programmer for the sake of a few lab experiments by providing a custom AppWizard which isused within Visual Studio to create the skeleton (and much of the meat) of a DirectX® projectwhich already contains all the required DirectX® code before the student ever touches it. Thestudent is required to add the DSP code, but does not need to worry about the details ofDirectX®. Detailed instructions are also provided for building the project and adding it to thesystem registry, in order to
-invitation-only for 500 middle school students and a TV show that reaches upwards of 8 million studentsacross the U.S. Each year, Visioneering has a unique theme that relates engineering to anexciting, often unlikely industry. The live event includes an Opening Rally, during whichparticipants hear from high-energy, inspirational speakers; a Design Project, in which studentteams led by an engineer create a conceptual design; a Tech Expo that showcases the latesttechnology; and an Awards Ceremony that recognizes the top student designs. The Telly Awardwinning TV show, aired on Cable Channel One, is a compilation of footage from the live eventas well as pre-shot footage. Each year, over half of the students attending are female and overhalf are blacks
. The practicalclasses and the laboratories take half of the schedule and they approach techniques and locationtechnologies, creation and reproduction of aquatic species and of industrialization. It is aprogram that will fulfill the lack of this kind of engineer in the Atlantic Coast Region of SãoPaulo State, which has a natural vocation to fish. It is because of its large portion of seashore andlarge number of fishing communities besides the industries of fish caught. It is a project that alsohas the goal to change the old orthodox pedagogy for engineering education.1. IntroductionThe mission of Education is most of all, to promote the natural ability of the mind to set and tosolve problems and by inter-relation to stimulate the full usage of
how the Center plans to meet itsmultifaceted challenges.NSF-ATE Program Overview The Advanced Technology Education (ATE) program at NSF is committed to developing thebest practices in technician education and have these practices become standard operatingprocedures for educators throughout the United States. The program was initiated bycongressional legislation in 1992 to increase the number of skilled technicians in “strategicadvanced-technology fields” with in the nation and to improve the productivity of Americanindustry. To accomplish this mission, NSF-ATE supports Centers and projects that utilizepartnerships with industry, business, government, and other educational institutions to achieveimprovements in one or more the ATE program goal
a variety of active learning techniques have beenreported 3,5.BackgroundTrinity University is a small (c2500 student FTE), private, liberal arts institution that is almostentirely made up of undergraduates. Unlike many schools with a similar description, it alsoincludes a Department of Engineering Science, whose mission is to “provide students with abroad-based undergraduate engineering education by offering a design-oriented, multi-disciplinary engineering science curriculum in the context of the University’s traditions of theliberal arts and sciences.”6 The key phrase is “design-oriented”, which translates intoparticipation in engineering design projects throughout the eight-semester design coursesequence. Thus it is highly advantageous
Subject 1 Bridge Building Competition 2 Engineering Art, E-mail and the Web 3 3D Art and Fundamentals of Flight 4 3D Art and Web Design I 5 Exam 1 and Web Design II 6 Instrumentation, Web Design III and Final Project Assigned 7 Circuits and Engineering Math 8 Exam 2, Timers and Flip-Flops and other IC’s 9 Blinky and How Things Work 10 Stress & Strain and Ethics, and Presentation of Final ProjectsEach lecture period is made friendly and inviting using some interesting techniques. Prior tolecture the room lights are dimmed and popular music is played. The latest news from Google orCNN is projected on a pull down screen and an aromatic candle is lit. When lecture starts themusic fades and the news
their participationlevel and the evaluation is used to adjust the project grade for an individual student. The use ofthe computer has permitted the team size to be reduced to 2-3 students in the large classesinstead of the 4-7 students that occurred in the past. The basic manufacturing processes course, which is required by the Industrial Page 10.499.1Engineering program, the Mechanical Engineering program, and the Aerospace Engineering andMechanical Engineering dual major program, is a 2 credit course and is typically taken in the “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition
Session 1661 Teaching Technical Communications in an Introductory Design Course through Interventions from the University’s Writing Center Colley Hodges, Cari-Sue Wilmot, Robert Askew, Richard Bannerot University of Houston Writing Center/Dept. of Mechanical EngineeringAbstractThis paper describes the continuing and evolving relationship between the Writing in theDiscipline Program in the University of Houston Writing Center and the Cullen College ofEngineering. This specific project is an intervention into a sophomore design course inmechanical engineering that took place for the first