AC 2009-2090: TECHNOLOGY EDUCATION IN THE UNITED STATES:TEACHERS' BELIEFS AND PRACTICES IN PERSPECTIVEMark Sanders, Virginia TechThomas Sherman, Virginia TechHyuksoo Kwon, Virginia TechJames Pembridge, Virginia Tech Page 14.1170.1© American Society for Engineering Education, 2009 Technology Education in the United States: Teachers’ Beliefs and Practices in PerspectiveSince changing its name in 1985, the field/school subject known as Technology Education hasworked to transform its curriculum and teaching practice from one dominated by craft andindustry-related technologies, to “a curriculum to reflect technology.”1 Over the past threedecades
AC 2009-1568: FEDERAL TITLE IX REVIEWS: WHAT THEY REALLY MEANCatherine Pieronek, University of Notre Dame Catherine Pieronek, J.D., is Assistant Dean for Academic Affairs in the College of Engineering at the University of Notre Dame. She serves the Society of Women Engineers as Title IX Lead and chair of the Society's Government Relations and Public Policy Committee for FY09. She holds a B.S. in aerospace engineering and her J.D. from the University of Notre Dame, and an M.S. in aerospace engineering from UCLA. Page 14.629.1© American Society for Engineering Education, 2009
/ (associated with indirect) indirect) indirect) indirect) ABET A-K) 1(a) 2.7/3.8 2.5/2.9 2.6/3.1 2(e) 3/3.6 3/3 3/2.6 3(b) 3/4.2 2.6/2.9 2.7/2.5 4(c) 3.3/4.6 3.1/2.9 3.1/2.8 Page 14.972.10 Etc.ConclusionIn summary, assessment of the Engineering Management Program Outcomes providesappropriate coverage of the EM program’s Objectives. In addition, EngineeringManagement Program Outcomes also provide adequate coverage of the ABET Criterionoutcomes a through k. And
is little evidence that compares service learning projects with non-servicelearning projects to test this assertion. We compared learning outcomes for (1) students engagedin service learning projects who a) completed 3 written assignments which each contained one ortwo reflective thinking questions, or b) did not have this assignment as part of their project work;(2) students engaged in service learning teams and students engaged in other types of teams; (3)service learning teams that did reflections and non-service learning teams that did reflections;and (4) students engaged in service learning teams and students engaged in other teams that didnot do reflections. The data were drawn from approximately 800 students who engaged incampus-wide
, G., Liu, S. Q., Smith, H. D., & Hirsch, P. (2006). Educational Modules in Tissue Engineering Based on the “How People Learn” Framework. BEE-j , 7.4. Birol, G., McKenna, A. F., Smith, H. D., Giorgio, T. D., & Brophy, S. P. (2002). Integration of the "How People Learn" Framework into Educational Module Development and Implementation in Biotechnology. Second Joint EMBS/BMES Conference (pp. 2640-2641). Houston: IEEE.5. Barr, R, Pandy, M, Petrosino, A, Austin, B and Goldberg, E. (2004). Classroom Testing of VaNTH Biomechanics Learning Modules. Proceedings of the American Society for Engineering Education Session 1109: 20 pages (2004).6. Greenberg, J.E., Smith, N.T. and Newman, J.H. Instructional Module
topic segments, each with two focused panels (Table 1). Thepanel topics are identified and developed in material presented as Appendix B to this report.Each workshop attendee was assigned to a panel and invited to pre-prepare a white paper thatwould served as a personal statement about both her experiences and perspectives on the issuesrelated to her assigned panel. Each panel lasted two hours, and began with an overview by anassigned moderator, followed by a statement of personal views by the other panel discussants.The subject was then opened up for input and discussions from other attendees, furthergenerating varied perspectives on the single-issue focus. Lunch, dinners, receptions andconcluding activities provided opportunities for informal
solve a problem, which has no closedform solution, using the available technology. They learned about the difference betweenshock load and steady load and the different nature of response for these two differentloading solutions.Bibliography1. Inman, Daniel J., “Engineering Vibrations, 2/E”, Prentice Hall, 2001.2. Rao, Singiresu S., “Mechanical Vibrations, 4/E”, Prentice Hall, 2004.3. Thomson, William T., Dahleh, Marie Dillon, “Theory of Vibrations with Applications, 5/E” Prentice Hall, 1998.4. Tongue Benson, “Principles of Vibrations, 2/E” Oxford, 2002.5. Kelly, S. Graham, “Fundamentals of Mechanical Vibrations, 2/E” , McGraw Hill, 2000.6. Balachandran, Balakumar, Magrab, Edward B., “Vibrations”, Thomson, 2004.7. Math Works Inc., MATLAB
of explicit integration of mathematicsconcepts in three pre-engineering curricula that make up the 3-year foundations sequence for awidely adopted high school technical education program, Project Lead the Way (PLTW).Explicit integration is defined as any instance wherein the materials specifically point to amathematics principle, law, or formula, and depict how it is used to carry out or understand anengineering concept, task or skill. We used the Standards as adopted by the National Council ofTeachers of Mathematics to determine the target math concepts. For each of the threefoundations courses, we analyzed the content of: (a) the intended curricula, including planningmaterials, performance objectives and classroom activities; (b) the
help from the web at anytime from anywhere. In this situation,web-based instruction could serve as a good candidate to facilitate teaching and learning througheasy means of access (24/7) and self-controlled training process together with multimediafeatures. This study focused on the application of online tutorials in engineering libraries. Datawere collected to statistically analyze the application status of online tutorials and thedistribution of tutorials in five instructional categories (information literacy, basic library skills,advanced library skills, course related, and others). The author then examined the status ofemploying active learning and auditory/visual media features to design online tutorials, discussedpopular authorizing
AC 2009-2123: UNDERGRADUATE VALIDATION OF CUTTING-EDGECALORIMETRY OF AN INDUSTRIAL AFFILIATE’S NOVEL ENERGY SOURCEPeter Mark Jansson, Rowan UniversityUlrich Schwabe, Rowan UniversityNathaniel Downes, Rowan UniversityPatrick Hoffman, Rowan UniversityMatthew Abdallah, Rowan University Page 14.1291.1© American Society for Engineering Education, 2009 Undergraduate Validation of Calorimetry of an Industrial Affiliate’s Novel Energy SourceAbstractA major component of the Rowan University (RU) engineering program is the clinic course,which gives students the opportunity to work with industrial partners on real projects, while stillmaintaining a classroom environment. The
AC 2009-978: DO'S AND DON'TS FOR RECRUITING ENGINEERING ORTECHNOLOGY FACULTYJohn Gumaer, Central Washington University John A. Gumaer is an associate professor of Electronics Engineering Technology at Central Washington University. He earned a MSEE from the University of Texas at Austin and a BSEE from the University of Texas at San Antonio. He is a registered professional engineer and has worked in commercial hardware and software development. He has participated in numerous faculty searches as either a committee member or a candidate. Page 14.497.1© American Society for Engineering Education, 2009
AC 2009-1765: ALTERNATE FUEL SOURCE TRAINERSean Copenhaver, Saint Louis University Sean Copenhaver is a senior in aerospace engineering at Saint Louis University.Paul Gucwa, Saint Louis University Paul Gucwa is a senior in aerospace engineering at Saint Louis University.Nick Reder, Saint Louis University Nick Reder is a senior in aerospace engineering at Saint Louis University.Goetz Bramesfeld, Saint Louis University Goetz Bramesfeld is an Assistant Professor of Aerospace and Mechanical Engineering at Saint Louis University. Page 14.170.1© American Society for Engineering Education, 2009Page
4/22/09Rochester Institute of Technology, ASEE Page 2 of 141.0 Abstract This project was out of necessity while in the process of developing composite drive-shafts and the need to be capable of creating test scenarios with combined bending and torsional loading. The new processing technique and novel fiber orientation for composite shafts aim to produce mechanical properties with high torsional stiffness while allowing angular misalignment. The shafts should allow for a similar result as a constant velocity shaft or universal joint except that the angular misalignment capabilities are provided through fiber orientation. In order to then
institutions with engineering programs reporting having a fully onlineprogram, compared to 33 percent for business, although penetration rates fordoctoral/research institutions is somewhat higher. Expanding the geographic reach tostudents is the primary reason for institutions to enter online education, although the Sloanstudy reports that 85 percent of students come from within 50 miles of campus, which theyclassify as local or from the state or surrounding states which they classify as regional.Given that backdrop, what makes a master’s program in systems engineering a goodcandidate to be developed as an online program? First, it should be noted that systemsengineering is a relatively young discipline compared to the other engineering disciplines
AC 2009-2269: DESIGNING EFFECTIVE USER INTERFACES FOR SOFTWARESIMULATIONS TO TEACH SIGNAL PROCESSING CONCEPTSSam Shearman, National Instruments Sam Shearman is a Senior Product Manager for Signal Processing and Communications at National Instruments (Austin, TX). Working for the firm since 2000, he has served in product management and R&D roles related to signal processing, communications, and measurement. Prior to working with NI, he worked as a technical trade press editor and as a research engineer. As a trade press editor for "Personal Engineering & Instrumentation News," he covered PC-based test and analysis markets. His research engineering work involved embedding microstructures in
MySQL providing dynamic HTML capabilities.This has had many benefits to student learning, forcing students to become familiar with remoteaccess to hardware via command-line, file transfer, and other similar concepts that are commonto commercial web development.Since the virtualization system used allows good performance with over 200 lightly loadedvirtual servers on a single hardware server, we have allowed students to retain their virtualservers throughout their academic careers, and to use them to serve their own non-commercialweb pages. This has promoted additional independent and service learning opportunities forstudents. Students have hosted web sites for nonprofit or church organizations, family groups,and have developed portfolio
AC 2009-993: PRELIMINARY FINDINGS ON FRESHMEN ENGINEERINGSTUDENTS’ PROFESSIONAL IDENTITY: IMPLICATIONS FOR RECRUITMENTAND RETENTIONTK Beam, James Madison University TK Beam is a first year graduate student in the School Psychology program at James Madison University. Prior to her graduate education, she graduated from the University of Virginia with a B.S. in biology and a B.A. in psychology. She currently serves as a graduate assistant to Dr. Olga Pierrakos working on an NSF funded BRIGE project investigating engineering identity.Olga Pierrakos, James Madison University OLGA PIERRAKOS is an assistant professor in the School of Engineering at James Madison University. Dr. Pierrakos holds a B.S. in
AC 2009-771: ENGAGING STUDENTS: THE GROWING SMART-CARCOMPETITIONJohn McLellan, FreescaleAndy Mastronardi, Freescale Page 14.541.1© American Society for Engineering Education, 2009 Engaging Students – The Growing Smart Car CompetitionAbstractWhether in the United States, Mexico, China, or other regions of the globe, today’s engineeringstudents all have one common characteristic, they get bored easily if not engaged in theirlearning. One solution is to hold a “Smart Car Challenge.” It has all the key ingredients thatengage a student speed, complexity, design, teamwork and competitiveness.In 2006, the China Ministry of Education initiated a design contest between
AC 2009-1109: CAPSTONE PROJECTS: INTEGRATING INDUSTRY THROUGHSTUDENT LEADERSHIPBrent Nuttall, California Polytechnic State University, San Luis ObispoJames Mwangi, California Polytechnic State University, San Luis ObispoCraig Baltimore, California Polytechnic State University, San Luis Obispo Page 14.304.1© American Society for Engineering Education, 2009 Capstone Projects: Integrating Industry through Student LeadershipAbstractCapstone projects provide a unique opportunity for developing student leadership skills whileintegrating industry partners. While models for including industry partners in capstone projectshave
AC 2009-840: SUPPORT FOR FACULTY WRITING PROPOSALS TO NEWINVESTIGATOR PROGRAMSLaurie Garton, Texas Engineering Experiment Station Dr. Laurie Garton is a Senior Research Development Associate with the Texas Engineering Experiment Station Office of Strategic Research Development. She has BS, ME, and PhD degrees in civil engineering (environmental) from Texas A&M University and was an engineering faculty member before joining TEES in 1999 where she has worked on technical research project grants related to interdisciplinary environmental themes. Currently she leads the TEES New Faculty Initiative targeting grants such as the NSF CAREER awards for untenured engineering faculty
AC 2009-2458: BUMBLEBEEBrian Rodrigue , Saint Louis University Brian Rodrigue is a senior in aerospace engineering at Saint Louis University.David Safont, Saint Louis University David Safont is a senior in aerospace engineering at Saint Louis University.Alex Rees, Saint Louis University Alex Rees is a senior in aerospace engineering at Saint Louis University.Jim Maday, Saint Louis University Jim Maday is a senior in aerospace engineering at Saint Louis University.Francisco Vilaplana, Saint Louis University Francisco Vilaplana is a senior in aerospace engineering at Saint Louis University.Goetz Bramesfeld, Saint Louis University Goetz Bramesfeld is an Assistant Professor of Aerospace and
AC 2009-2401: GEOMETRIC DESIGN OF HIGHWAY VERTICAL ANDHORIZONTAL CURVES USING EXCELBradly McNair, Indiana University-Purdue University, Fort WayneSuleiman Ashur, Indiana University-Purdue University, Fort Wayne Page 14.647.1© American Society for Engineering Education, 2009 Geometric Design of Highway Vertical and Horizontal Curves Using ExcelAbstractThis paper presents the work that was developed as a project in the first offering of thetransportation engineering class at the new civil engineering program at Indiana University-Purdue University Fort Wayne. The project statement required the use of Excel in developing aprogram for
AC 2009-882: ENGINEERING YOUR FUTURE PROJECT FOR HIGH-SCHOOLSTUDENTSMuhammad Kehnemouyi, Montgomery CollegeUchechukwu Abanulo, Montgomery College Page 14.561.1© American Society for Engineering Education, 2009 Engineering Your Future Project for High School StudentsAbstractThrough a program known as, “The College Institute”, Montgomery College, Rockville,offers a series of freshmen college-level courses to high schools in Montgomery County.One of the courses offered is ‘Introduction to Engineering Design’, also known as ES100, which offers a wide variety of introduction topics in engineering, as well as anopportunity for students to work on a design project in teams
how to use of the Nintendo Wii® game console to teach students a varietyof human factors principles. First, the concept of Signal Detection Theory (SDT) is explainedusing a personalized searching game on the Wii®. Next, an activity involving human sensorysystems is discussed. Finally, a learning module that addresses control design and feedback,focusing on the game’s controller (Wii Remote or Wiimote) is presented. Potential topic areasfor future activities, including human computer interaction, are also discussed. The teachingactivities described in this paper have been successfully used by the author in past semesters. Asampling of student feedback is provided in the paper. Finally, a discussion of how the activitiescould be extended to non
most Science and Engineering curricula in Nigeria isinadequate. In Obafemi Awolowo University for example, undergraduate students typicallycarry out around five assignments related to digital electronics, and there is no treatmentwhatsoever of Field Programmable Gate Arrays(FPGAs). In the research work beingreported, an attempt has been made to develop a remote laboratory though which the numberof digital electronics experiments students carry out can be increased.The remote laboratory, called the Advanced Digital Lab (ADLab), allows students tosynthesis digital systems on an FPGA with a hardware description language. To achieve this,a development board with an Altera Cyclone II FPGA is connected to a computerimplementing the server tier of
AC 2009-2140: NONITERATIVE DESIGN OF MULTIPLE EFFECTEVAPORATORS USING EXCEL ADD-INSJeremy VanAntwerp, Calvin CollegeAubrey Sykes, Calvin CollegeApril Xiuhau Si, Calvin College Page 14.910.1© American Society for Engineering Education, 2009 Non-iterative design of multiple effect evaporators using Excel add-insAbstractAll undergraduate engineering texts that cover multiple effect evaporation present the solutionprocedure as necessarily trial-and-error. We present a solution method for multiple effectevaporators that directly solves the nonlinear equations. We do this in Excel by using the solverfunction and a free add-in that automates steam table look-ups. The solution procedure
AC 2009-214: SCRIPTS IN MATLAB FOR ANIMATION OF THE SOLUTIONS TOPARTIAL DIFFERENTIAL EQUATIONSRaymond Jacquot, University of Wyoming Ray Jacquot, Ph.D., P.E., received his BSME and MSME degrees at the University of Wyoming in 1960 and 1962 respectively. He was an NSF Science Faculty Fellow at Purdue University where he received the Ph.D. in 1969. He joined the Electrical Engineering faculty of the University of Wyoming in 1969. He is a member of ASEE, IEEE and ASME and has been active in ASEE for over three decades serving as Rocky Mountain Section Chair and PIC IV Chair. His professional interests are in modeling, control, simulation and animation of dynamic systems. He is currently Professor
AC 2009-2421: DEVELOPMENT OF NONTRADITIONAL SKILLS IN GRADUATESTUDENTS THROUGH TEACHING AND CURRICULUM DESIGNAnna Fox, Drexel UniversityDavid Delaine, Drexel UniversityAdam Fontecchio, Drexel University Page 14.483.1© American Society for Engineering Education, 2009 Development of Non-traditional Skills in Graduate Students through Teaching and Curriculum DesignThis paper presents a study of communication and leadership skill development in graduatestudents after participating in a program for cooperative faculty/graduate student teaching.Specifically, we discuss collaboration with experienced faculty to teach and designundergraduate Electrical
AC 2009-1469: INSIDE THE DESIGN CHALLENGE: MOTIVATING STUDENTSTHROUGH THE DESIGN PROCESSDebbie Mullins, Texas Space Grant Consortium Debbie Mullins has a been a Higher Education Program Coordinator for the Texas Space Grant Consortium (TSGC) since 1999. She was instrumental in designing the features of TSGC's flagship higher education program: The TSGC Design Challenge Program in 2002 and has been responsible for managing the program since its inception.Wallace Fowler, University of Texas, Austin Wallace Fowler is the Paul D. & Betty Robertson Meek Centennial Professor in Engineering and Distinguished Teaching Professor at the University of Texas at Austin. He was the 2000-2001
AC 2009-558: KEEPING IT SIMPLE: AN INTRODUCTORYMICROCONTROLLER COURSE USING THE HCS08matt gallagher, Vermont Technical CollegeAndre St. Denis, Vermont Technical CollegeJohn Murphy, Vermont Technical College Page 14.826.1© American Society for Engineering Education, 2009Keeping it Simple: An Introductory Microcontroller Course using the HCS08Abstract The current trend in microcontroller courses is to use demonstration circuit boards withmany built-in devices that showcase the input-output capabilities of a state-of-the-art device.Current microcontrollers have fifty pins or more, come in surface mountable packages and haveexternal clock sources. The combination of many interesting