shows atwo dimensional computer-aided design drawing of the retailer station drawn in AutoCADsoftware. The drawing was plotted on an ANSI D- 22 x 34 in. (landscape layout) size paper andthen laminated. There is one laminated retailer layout for each of the groups that play the beergame in class. One player in each group is assigned to the retailer stage to role play this supplychain partner. The end customer is the retailer’s customer and is the source for the orders of beerat the retailer station. Once the retailer fills the end customer’s order, s/he sends another order tothe wholesaler.Figure 1. Drawing of the retailer station. The wholesaler is the retailer’s supplier and therefore is the next partner in the supplychain layout of
. Engineering studentsincluded both industrial and mechanical engineers. Business students included marketing,management, finance and accounting majors. Liberal Arts students majored in an even widervariety of disciplines ranging from mathematics and computer science to economics and politicalscience. Rather than having students work on one project, we presented students with a variety oftopics of interest to engineers, economists, and business managers along with assignmentscovering these topics. On some assignments, students worked alone and on others students weregiven the option to work on teams. However, in this case, the students chose the teamcompositions themselves. Some teams crossed disciplines and some did not. In addition, wetested students
presentations: • Excessive “and” and “ums” • Lack of eye contact with the audience • Reading off the computer screen • Use of informal language • Lack of a conclusion • Lack of adequate visual information • Misplaced slides (good information – wrong location)The students are also given a copy of the oral evaluation form (Table 1) that is presented later inthis paper. This form can be used by the students as “good presentation guidelines”. Byproviding these guidelines, the time that might have to be spent on basic ideas for improvementduring the practice sessions at the end of semester is often reduced. Each team meets with thespeech coach for three 1- 1.5 hour sessions prior to the on-campus
addressing the growing concern oversummer learning loss for children, a problem which has been known for over 100 years1. Astudy by Cooper et al.2 integrated 39 studies examining the effects of summer vacation onstandardized achievement test scores. It was concluded that on average children's tests scoreswere at least one month lower when they returned to school in fall than scores were whenstudents left in spring. When measured in terms of mathematical and computation skills, moststudents lost about two months of grade level equivalency over summer vacation. According toCooper et al., more than half of the achievement gap between lower and higher income youth canbe attributed to an unequal access to structured summer learning opportunities; this
discussions were also held about conversion to and fromRGB (Red, Green, and Blue) to HSV (Hue, Saturation, and Value) representation forvarious data-mining operations.Students from Natural Sciences and Engineering were also exposed to the YSI 6600Multiparameter probe to understand the importance of monitoring of the watershedthrough collection of water quality data such as depth, water temperature, salinity,dissolved oxygen, turbidity, salinity, and chlorophyll a. Through the cross-disciplinarystudies and application of technology from other disciplines such as use of in situ sensorsfor water quality sampling, computing, geostatistics, and geographic informationsystems, a more effective way to monitor the environment could be initiated. This
EMS company (electronic manufacturing services). This new post-secondary education architecture will provide the student with a real-world learning environmentfor a full four-year undergraduate engineering program. The students learn the traditionalengineering theory and practical skills by participating in every aspect of the EMS business –hence, the phrase concurrent education. The professors in the school also lead project teamsconsisting of students and staff on the EMS production floor. The students will be compensatedfor their work in the EMS. The teaching staff will be employed by the business as well as theschool. The paper presents the planned curriculum for the students’ freshman year. The schoolutilizes the real world EMS classroom
of Engineering Education, Vol. 89, No. 2, 2000, pp. 161-165.18. Starfield, A.M., K. A. Smith., and A.L. Bleloch, A.L., How to Model It: Problem Solving for the Computer Age. Edina, MN: Burgess, 1994.Bibliographic InformationJO HOWZEJo Howze is Associate Dean for Engineering Academic Programs and Ford Professor of Electrical Engineering atTexas A&M University. He is Principal Investigator for the NSF STEPS program and is responsible for the FordMotor Company sponsored effort to enhance “Design Across the Curriculum.” His interests include distributedenergy systems, control systems and engineering education, particularly interdisciplinary education and design.JEFFREY FROYD
Rice are working together to raise donor support to sustain the undergraduate stipendand housing costs.References1. DeHaan, RL, McCray, RA, Schuck, JA, eds. Improving Undergraduate Instruction in Science, Technology, Engineering and Mathematics: Report of a Workshop. Washington, D.C.: The National Academies Press, 2003.2. Margolis, J, Fisher, A. Unlocking the Clubhouse: Women in Computing, MIT Press, Cambridge, Mass. 2002.3. Varki, A, Rosenberg, LE. Emerging opportunities and career paths for the young physician-scientist. Nature Medicine 8(5):437-441, 2002. Page 11.956.64. Abelmann, WH, Nave, BD, Wilkerson, L
start out in a first semester course that teaches number systems andlogic functions in the first two weeks. Lab experiments through week 4 still use TTL ICs andbreadboards as an easy way to quickly implement and test the basic concepts of digital logicwithout needing to learn the computer tools required for advanced development.By week 5 the students are learning graphic entry techniques using Altera software and by week6 they are describing circuits using AHDL. The benefit of using AHDL is that it is much more“beginner friendly” than VHDL, while demonstrating most of the important concepts ofdescribing logic circuits using text. The tedious details of VHDL are much more easilyconquered in more advanced classes after mastering the basics in
as dean of engineering in between, before moving to Baylor in 1998. He is a senior member of IEEE and holds PE registration in Ohio and Texas.Carmen Li Shen, Baylor University Ms. Carmen C. Li Shen is currently a senior engineering student in the Department of Electrical and Computer Engineering at Baylor University, Waco, TX. She is a member of the Eta Kappa Nu Electrical and Computer Engineering national honor society and of Golden Key honor society, and serves as the SWE chapter webmaster and the IEEE Student Branch historian at Baylor. Carmen was born in Ecuador and came to the United States in 2002. She is planning on graduate school after her May 2006 graduation
3process. Modern Tools Thread - The educational objective of the Modern Tools Thread is: Graduates will use modern tools routinely in their work.Of the many tools available, DFAN focuses on three: (1) Spreadsheets (Excel). (2) Structuredprogramming (MATLAB). (3) Applications packages. Specialized programming occurs forcadets choosing to emphasize computational fluid dynamics applications. Like the two otherthreads, the process for learning modern tools is woven throughout the curriculum beginning withthe freshman introductory engineering course and culminating with extensive use of computationaltools in the senior design sequence.Below are presented overview comments extracted from our self study report regarding
degrees from the University of Washington. He is the author of the text Embedded Microcontrollers, which covers assembly and C programming in small real-time embedded systems, and has been teaching the upper level embedded systems and senior project courses in EE/EET at WWU for 30 years.Dr. Derek M. Yip-Hoi, Western Washington University Dr. Yip-Hoi received his Ph.D. from the Department of Mechanical Engineering at the University of Michigan in 1997. His dissertation research focused on developing Computer-Aided Process Planning methods and software tools to support automation of machining on Mill/Turn machining centers. Follow- ing his Ph.D., he worked for several years with the NSF Engineering Research Center for
North Carolina State University studying high precision op- tical replication methodologies, his Master’s Degree in Mechanical Engineering from Purdue University developing computer aided fixture planning methods, and a BSME from Texas Tech University. c American Society for Engineering Education, 2020 A Strategy for Integrating Workplace Skills Development into a Manufacturing Engineering CurriculumAbstractWorkplace skills development are an important though often an indirect outcome of Engineeringcurriculums. These skills are critical to successful careers in job environments where graduatesmust increasingly navigate the challenges of adaptation to new technologies and the
; and 3) engineering topics. These categories, plus a fourth “other” category,are based on the general classes identified by ABET. For the purposes of this paper, the liberalarts include language, communications, economics, literature, history, philosophy, and socialscience courses—the core of most general education components. As such, the ABET category“general education” will be used synonymously with the term “liberal arts.” While basic scienceis sometimes considered a liberal art, this study follows ABET and counts all “hard” sciencessuch as physics, chemistry, biology, and geology in the “math and science” grouping. Figure 1. Percentage of Average Curriculum
AC 2007-1387: DEVELOPING A PROFESSIONAL SCIENCE MASTER’S DEGREEPROGRAM IN COMBATING WEAPONS OF MASS DESTRUCTIONDavid LaGraffe, Air Force Institute of Technology LTC Lagraffe is assigned to the Defense Threat Reduction Agency with duty as a professor at AFIT. He is currently the Combating WMD Curriculum chair. His expertise is in experimental condensed matter physics. His past research has involved study of the growth, electronic, and magnetic properties of thin films, surfaces and interfaces.James Petrosky, Air Force Institute of Technology Dr. Petrosky is a retired army officer and has been on the AFIT faculty since 2000. He serves as the Nuclear Engineering curriculum chair. His expertise is in
AC 2009-2082: RAPID PROTOTYPE TOOLING TO TEACH NET-SHAPEDMANUFACTURINGLouis Reifschneider, Illinois State University Lou Reifschneider is an Associate Professor in the Department of Technology at Illinois State University. He received his BSME in 1983 from the University of Notre Dame, his MSME in 1984 from the University of Minnesota, and his PhD ME in 1990 from the Ohio State University. Prior to joining ISU, Dr. Reifschneider worked in the field of computational engineering analysis software development focusing on plastics processing. His research interests include plastic product design, mold and die design, and the processing of bio-based materials. Since 1998 he has taught
covered concisely in this section. The students are asked to prepare and conduct a presentation on Workers Compensation law for a U.S. State chosen by the author.≠ Product Safety and Liability: Next step is to associate the product design and development process, ethics and legal implications of engineering practice through product safety and liability. The students first learn technical concepts like fail-safe and fool-proof designs, and Failure Mode Effect Analysis (FMEA) through case studies, videos, and computer programs. They are then loaned copies of the movie based on a class action lawsuit, and expected write a report on this product safety and liability case utilizing the law terms they have learned.≠ Stress
Manufacturing Resource Forum - She is dedicated to researching and issuing action-provoking reports on advanced manufacturing trends, workforce development and disruptive technologies.Dr. Teresa A. Johnson, Ohio State University Teresa A. Johnson, Ph.D. is an assistant director and the Coordinator for Assessment and Curriculum Design at the University Center for the Advancement of Teaching at The Ohio State University. She earned a doctorate in Microbial Ecology at the University of Illinois at Urbana-Champaign. She has taught in the sciences at Butler University and at the College of Wooster. Her pedagogical research has focused on classroom assessment techniques and impacts of prior knowledge on student learning in the
Engineering Management from The University of Alabama Huntsville. Page 12.1273.1© American Society for Engineering Education, 2007 Service-Learning and Integrated, Collaborative Project ManagementAbstractThis paper describes the introduction of service-learning into an undergraduate course on projectmanagement. At ECU, engineering courses are taught in an integrated and collaborativeeducation environment. The core curriculum requires junior level students to complete a coursein project management as part of the program’s commitment to industry to supply immediatelyproductive, contributing new
include neuralengineering among their track options, but a search through the Whitaker FoundationBiomedical Engineering Curriculum Database [2]– a repository for course and curricularinformation in bioengineering– returns 187 courses having “neural” in the title. (Accordingto the web site, the database includes information for “more than 100 academic institutions” Page 11.77.2[2].) In our own BioEngineering Department at UIC, neural engineering is one of severaltracks in which undergraduates may focus their studies. Over the past three yearsapproximately 40% of graduating seniors selected neural engineering for their track.Students concentrating in
: - Data analysis of lab-generated data by using model fitting techniques including the least squares method Page 11.413.5 - Installation and calibration of laboratory sensors and data logging equipment - First and Second law analyses of thermodynamic devices by using: o computational tools o physical hardware in the laboratory - Measurement of appropriate efficiency metrics - Error propagation analysis of lab-generated data and calculated resultsOnce the students have acquired the necessary skills, the students are asked to design athermodynamic experiment for a device of their interests that involves heat flow and
AC 2007-417: TECHNOLOGY ENABLED SUPPORT MODULES FORENGINEERING MANAGEMENTStuart Kellogg, South Dakota School of Mines and Technology Stuart D. Kellogg, Ph.D., Dr. Kellogg is a Professor of Industrial Engineering at the South Dakota School of Mines & Technology where he currently serves as coordinator of the Industrial Engineering and Technology Management programs. In addition to pedagogical issues related to engineering education, his research interests include applied and numerical probability models in the industrial environment. He has published works Mathematics and Computers in Simulation, Proceedings of IIE Research Conference, Quality Engineering, and Proceedings of the Joint
interpretations of the natural world.8 These diverse ideas serve as a rich basis forengineering design projects.The KI instructional pattern identifies learning processes that are essential for helping studentsmake connections between ideas and develop coherent understanding: eliciting, adding,distinguishing, and sorting ideas. The KI framework aligns well with engineering designprojects.9 WISEngineering uses KI as a learning framework to guide curriculum design,assessment, and refinement, enabling us to document the ideas that students hold about variousconcepts in different domains as well as how these ideas are connected.10 For example, manystudents struggle to make connections from topics in math to their everyday life. Engineeringdesign projects
Engineering Educators. He has instructed courses on construction drawings and specifications, concrete technology and formwork, heavy civil construction methods, residential construction methods, and building systems.Lonny G. Simonian, California Polytechnic State University, San Luis Obispo Page 25.893.1 c American Society for Engineering Education, 2012 Lessons Learned from the Implementation of Integrated Project Based Construction Management Curriculum: A Faculty PerspectiveAbstractBeginning in the autumn quarter of 2008, the Construction Management Departmentat
design course, but werealso discussed in the physics and calculus courses. An internal evaluation of the integratedlearning block found that the shared projects were well received and the students gained betterunderstanding of the interrelationship between engineering, physics, and calculus.I. IntroductionThe engineering curriculum at the University of Hartford has been redesigned with the creationof unique course combinations where the faculty from various colleges and departments worktogether. Engineering and non-engineering courses are combined into groups called integratedlearning blocks (ILBs). Two ILBs were incorporated into the common freshman year. The firstsemester “Principles of Engineering” course that introduces students to the
appropriate computer systems to capture the data.Individual faculty members opt for the blended format because they consider it to offer the bestlearning opportunities for students. Administration is beginning to spot the prospect of givingmore students access to courses and possibly attracting and retaining more students. Potentialbenefits of a blended course format include13:• Greater access to a range of appropriate, personalized, and individualized learning, teaching, and resources• Greater accommodations for learners and teachers of diverse ages, styles, expertise, nationalities, and cultures, who can connect from multiple settings such as homes, workplaces, libraries, and countries
AC 2009-1366: CONSIDERING THE MATHEMATICAL APPROACH ANDCOURSE-CONTENT STRUCTURE WHEN TEACHING PHYSIOLOGY TOBIOMEDICAL ENGINEERSRegina Nelson, University of Wisconsin, Madison Regina Nelson is a doctoral student in Biomedical Engineering at the University of Wisconsin-Madison. She received an M.Ed. in Special Education from the University of Pittsburgh and an M.S. in Biomedical Engineering from the University of Wisconsin-Madison. Her research focuses on teaching methods and assessment of learning outcomes related to the physiology sub-curriculum in biomedical engineering education.Naomi Chesler, University of Wisconsin, Madison Naomi Chesler is an Associate Professor of Biomedical Engineering at
. Page 11.389.144) Perform reality checks a) Check equations for dimensional homogeneity b) For computer solutions perform sample calculations
to interdisciplinary instruction in a first-year engineering design course. American Society for Engineering Education North Central Section Spring Conference Proceedings, Lansing, MI, Mar 2000.16. Costantino, T., Kellam, N., Cramond, B., and Crowder, I., (2010) An Interdisciplinary Design Studio: How Can Art and Engineering Collaborate to Increase Students' Creativity? Art Education, 63(2): p. 49-53.17. Yost, S., Krishnan, M., and Paulik, M. (2008) Development Of An Integrated Spiral Curriculum In Electrical And Computer Engineering. Proceedings of the 2008 American Society for Engineering Education Annual Conference & Exposition, Pittsburg, PA.18. Collura, M., Daniels, S., and Nocito-Gobel, J. (2007) The current
Math Usage by Practicing Engineers: What does it mean to Curriculum Planners? Mike Ellis, Brian Williams, Habib Sadid, Ken W. Bosworth, and Larry Stout Idaho State UniversityAbstractEngineering programs are constantly assessing the material required to earn an engineeringdegree. This assessment leads to squeezing in additional courses, often at the expense ofrequiring additional credits beyond that for a typical Bachelors degree. The common practice ofincluding new material while not changing what already exists is pushing the number of requiredcredits for an engineering degree in excess of what should be expected. A fundamental questionnot typically