socially-based learningopportunities students had the opportunity to compare and discuss the different things that wererepresented [24].The conceptual modeling activity was part of a 4-week engineering design curriculum unit thatintegrated engineering, science and computational modeling focused on water systems [41]. Theengineering design problem centered on reducing flooding of the school’s recess field. Thecontext was specifically designed to leverage students’ own experiences with the school’s watersystem as resources to use during the modeling activities. Students engaged in conceptualmodeling of where water goes during rainfall to inform the development of a computationalmodel and their design solutions [42]. This study focuses on a lesson
AC 2008-1239: A PSK31 AUDIO BEACON PROJECT PROVIDES ALABORATORY CAPSTONE DESIGN EXPERIENCE IN DIGITALCOMMUNICATIONSJames Everly, University of Cincinnati James O. Everly is an Associate Professor of Electrical and Computer Engineering Technology at the University of Cincinnati. He received a BSEE and MSEE from The Ohio State University in 1969 and 1970, respectively. He is a Senior Member of the Institute of Electrical and Electronics Engineers (IEEE) and a registered professional engineer in the state of Ohio. He is the current past Chair of the IEEE Cincinnati Section, and in 1997 he received the IEEE Professional Achievement Award. He has held several research and management positions in
). Creating an Engineering for Developing Communities (EDC) Emphasis in Environmental Engineering. Proceedings, ASEE Annual Conference and Exposition, Retrieved from http://www.asee.org/acPapers/code/getPaper.cfm?paperID=9298, 7 December 200512. Klingbeil, N., Mercer, R., Rattan, K., Raymer, M. and Reynolds, D. (2005). Work in Progress - The WSU Model for Engineering Mathematics Education. Proceedings, Frontiers in Education Conference, Retrieved from http://fie.engrng.pitt.edu/fie2005/papers/1527.pdf, 7 December 200513. Paulik, M., Krishnan, M., and Al-Holou, N. (2005). Work in Progress - Development of an Innovative Curriculum for Undergraduate Electrical and Computer Engineering Students. Proceedings, Frontiers in
(PDM) majors and does not have dynamics as aprerequisite. Learning outcomes are compared for students from these two different coursesthrough common final exam questions and a common lab activity. This paper presents a baselineassessment of whether or not students who do not take dynamics can develop a solidunderstanding of the dynamics of under-damped, second-order systems along with a preliminaryinvestigation into the effectiveness of several strategies for teaching dynamic systems. This paperalso presents results from an online survey regarding how the course affected students’ attitudestowards computer programming and their assessment of their programming skills.Introduction and BackgroundThis work-in-progress paper provides both a bench
in detail in [12]. In the hands-on project, the studentteams would design and build a car that operated on an Arduino coding platform that wouldfollow a line. While the students were able to create the prototype of the chassis of their designusing low-fidelity materials, they were encouraged to design their chassis such that it could be3D printed, and work with the staff at Innovation Commons to create their prototype. Thisproject was ideal for the incorporation of 3D printing technology; the students were alreadylearning computer automated drawing (CAD) within their curriculum, and by adding 3Dprinting, they were able to see the direct application of their CAD programs. Unfortunately, thefeedback available from Innovation Commons was not
. Facilitate opportunities for employees to work on projects or issues that are socially relevant Men working in engineering and computing to serve as role models. Emphasize ethical and social issues when teaching engineering and computing. Encourage a supportive environment in the classroom and in the program. Encourage and assist early contact between students and professionals. Emphasize the wide variety of expertise necessary to be successful as an engineer or computing professional. Highlight as early as possible the different facets that make up engineering and computing.Methodology and Educational Learning Strategies:This course came out of a passion by the instructor to enhance leadership
computational biology and bioinformatics. He is also interested in evaluating the pedagogical approaches optimal for teaching lab concepts and skills, computational modeling approaches, and professionalism within design classes. Dr. Allen also serves as PI and director for an NSF-funded Multi-Scale Systems Bioengineering REU site at U.Va.Mr. David Chen, University of Virginia Mr. David Chen is a lecturer in the Department of Biomedical Engineering at the University of Virginia. He received a B.S. in Biology from Liberty University and an M.S. in Cell and Developmental Biol- ogy from Rutgers University and an M.B.A from the Darden School at the University of Virginia. Mr. Chen’s teaching activities in the Department of
offered in a traditionalface-to-face lecture only.Course Materials and TechnologyTechnological development has changed the way teaching and learning in last decade or so. Itsimportance has inspired academicians across the globe to embrace technology in higher learning.Technology has illustrated that the classroom does not need to be the heart of learning, asteaching and learning experience can be extended by networked multimedia4.An engineering economy textbook by Leland Blank and Anthony Tarquin was required for thishybrid course. Students were also required to have personal computer with internet connectionand must have access to the university’s Blackboard (eLearning). Course materials for the onlinepart of the course were posted on Blackboard
state-of-the-art experiment can also be used in theComputer Engineering Technology curriculum for senior level students in the EmbeddedSystems or Wireless Communication courses. The prerequisites to understand thisexperiment include wireless sensor networks application classes, popular wirelessstandards, hardware design with RF transceiver modules, embedded controller and sensorcircuits, and embedded software for microcontroller programming.IntroductionSensor based technology has invaded medical devices to replace thousands of wiresconnected to these devices found in hospitals. This technology has the capability ofproviding reliability with enhanced mobility. In today’s hospital scenario, there are morepatients but not enough nurses. In these
nanotechnology. The program is designed to cater to incomingstudents with diverse backgrounds, to prepare the students for new challenges in theworkplace, and to provide a curriculum with strong multidisciplinary foundation that canevolve with changing technology. The new curriculum consists of a set of core coursesand several focus research areas. It provides students with extensive hands-onexperience, a comprehensive experience in teamwork and technical communication, andthe opportunity to exercise and develop their creativity and innovation.I. IntroductionThe integration of entire systems into micron scale devices and the sensing technology tointerface these devices to the real world is and will be core disciplines required for nextgeneration
the scientific discovery process through these stimulating activities while they areconcurrently introduced to multidisciplinary engineering principles from Chemical, Mechanical,Electrical and Computer, and Civil and Environmental Engineering. Engineering design, heavilyemphasized in the Freshman and Sophomore Engineering Clinic courses, has expanded beyondthe physical development of ideas to now incorporate sustainable practice. The Clinic sequencehighlights several modules that require students to develop imaginative solutions toenvironmental issues, such as fuel shortages and the need for alternative energy. Studentsaddress these issues directly through such projects as deriving biofuels from microalgal speciesand designing and
AC 2012-5224: TEACHING-TO-LEARN SESSIONS TO ACHIEVE SUB-JECT RELEVANCE IN AN INTRODUCTION TO BIOMEDICAL ENGI-NEERING COURSEDr. Steve Warren, Kansas State University Steve Warren received a B.S. and M.S. in electrical engineering from Kansas State University in 1989 and 1991, respectively, followed by a Ph.D. in electrical engineering from the University of Texas, Austin, in 1994. Warren is an Associate Professor in the Department of Electrical & Computer Engineering at Kansas State University. Prior to joining KSU in Aug. 1999, Warren was a Principal Member of the technical staff at Sandia National Laboratories in Albuquerque, N.M. He directs the KSU Medical Com- ponent Design Laboratory, a facility partially
Professor in Electrical and Computer Engineering and the Director of Women in Engineering at the University of Illinois Urbana-Champaign. Her current interests include recruitment and retention of under-served students in STEM, leadership development for undergraduate and graduate students, and curriculum innovation in Electrical and Computer Engineering.Dr. Marcia Pool, University of Illinois Urbana-Champaign Dr. Marcia (”Marci”) Pool is the Assistant Director for Education at the Cancer Center at Illinois and a Teaching Associate Professor in Bioengineering. She holds a Ph.D. in Biomedical Engineering, has served for sixteen years as teaching faculty/staff in biomedical/bioengineering and nine years in departmental
professionals in systems engineering and related fields that have integrated DEIinto their work to provide recommendations for how DEI principles can be integrated intoengineering education. Participants were recruited online and through snowball sampling. Semi-structured interviews were completed with 15 participants either over the phone or on a videochat platform. These interviews were analyzed through inductive content analysis, which yieldedthree themes related to integrating DEI into systems engineering education: curriculumdevelopment, course design, and educator development. The results from this study align withrecent calls in higher education to decolonize the curriculum. Beyond strategies like ensuringrepresentation in class readings and
, and physical sciences, including a series of courses specific to forensic scienceand criminalistics, computer forensics, forensic entomology, forensic microscopy,environmental and health sciences, law and society, psychology, aviation technology,engineering a host of other courses related to forensic science education. The curriculumwithin the biotechnology program provides a molecular understanding and hands-onexperience in molecular techniques that are commonly utilized in forensic laboratories.The Biotechnology Laboratory I (IT226) is an elective for the forensic minor.Evaluation of Biotechnology Lab I and Biotechnology Lab IIThe goals of the biotechnology core curriculum are to create an environment thatencourages interdisciplinary
Experimental Systems through Student Projects to Enhance the Automation Curriculum in a Manufacturing Engineering Technology Program.AbstractThe use of Supervisory Control and Data Acquisition (SCADA) systems in industry is on therapid increase, especially with developments of modular instruments and sensors that are easilycontrolled through Ethernet or other industry network standards. The need for skilled personnelto implement and utilize these systems is also increasing. Courses which incorporate SCADAapplications are offered widely across the nation and in many colleges. These courses ofteninclude theory and laboratory component in which students learn how to implement and programthese systems. By providing an
as insulating materialsbecause of their low thermal conductivity, low density, and relatively low cost. Aluminum1100-H14 and galvanized steel were selected as reflective materials. Page 13.375.4In addition to selecting several materials for each component, the students also proposed andmodeled (using computer-aided design) three surface configurations including flat, semi-circular(Figure 2), and triangular (Figure 3) configurations. Figure 2. Semi-circular configuration19 Figure 3. Triangular configuration19Each configuration shape was based on previous experimental results18 which
AC 2008-798: A CLASS PROJECT ON AN LDPC-BASED ERROR CORRECTINGSYSTEMMin-Sung Koh, Eastern Washington University MIN-SUNG KOH obtained his B.E. and M.S. in Control and Instrumentation Engineering in the University of ULSAN, South Korea, and his Ph. D in Electrical Engineering and Computer Engineering in Washington State University. His interests are in the areas of speech and image signal processing, signal processing in communication, photoacoustics and embedded systems.Esteban Rodriguez-Marek, Eastern Washington University ESTEBAN RODRIGUEZ-MAREK did his graduate work in Electrical Engineering at Washington State University. He worked as a research scientist at Fast Search & Transfer before
AC 2008-1870: MECHANICAL ENGINEERING TECHNOLOGY SENIOR YEARCOURSE INTEGRATION MODELKevin Cook, Montana State UniversityRobb Larson, Montana State University Page 13.880.1© American Society for Engineering Education, 2008 Mechanical Engineering Technology Senior Year Course Integration ModelAbstractAs part of a recently completed Mechanical Engineering Technology (MET) curriculum reviewand enhancement exercise, many course level improvement opportunities were identified andplans were developed for implementation of those improvements. These plans included bothcourse content enhancement, as well as teaching pedagogy modification. Most
in engineering applications of nanomaterials andmacromolecules. This paper describes how the development of a Master’s program resulted in aminor for engineering undergraduates that is relevant to industrial technology.The CPS graduate program developed because the late Dr. Howard Gerhart, then vice presidentfor R&D at PPG Industries and later adjunct professor of chemical engineering at CarnegieMellon University, took the lead in approaching Carnegie Mellon with specifics of hiscompany’s needs in basic training and continuing education for technical employees. Hisrequirements fit well with existing planning by the polymer research group of the chemistrydepartment to launch a graduate curriculum in polymers and by the chemical
defined and developed. (6)Chryssolouris.G. et al., reviewed related publications and concluded that to effectively addressthe emerging challenges for manufacturing education and skills delivery, the educationalparadigm in manufacturing needs to be revised. Many educational institutions have tried to bringtheir educational practice closer to industry also with the concept of “Learning Factory”. Adrawback of this approach may be that the dedicated equipment, which is installed on theacademic settings, may at some point become obsolete. (7)With the advancement of manufacturing technologies adapted by industries, academicinstitutions are required to adapt those technologies in their curriculum to be in par. One suchlatest advancement in manufacturing
. The think-pair-share and ticketout improved student engagement and the communication between instructor and students bothinside and outside classrooms. Application to real-world better prepared students foremployment after graduation.The above practices were applied to three courses, “Computer Methods for Technologists”,“Applied Solid Modeling”, and “Shock and Vibration Analysis”. All three course received verypositive responses from students as shown in Table 1. Table 1: Student Evaluation Results Before MEP After MEP Fall 2018 Spring 2019 Fall 2019 Student Student Student Student
additional laboratory science courses and mathematicscourses through calculus, as well as traditional engineering science courses such asthermodynamics and fluid mechanics. The four Motrosports Engineering minor courses are usedas major courses in the curriculum. The Old Dominion University courses will be offered inMartinsville both live and through ODU’s TELETECHNET satellite television distance learningsystem. Laboratories for the Motorsports Technology courses will be uniquely situated at theVirginia International Speedway in Martinsville and at the NASA Langley Windtunnel facility(operated by ODU), in Hampton, Virginia. Plans are to initiate the program in the Fall 2007, asfunding becomes available. This paper will describe the detailed
fall semesters of the junior year and a part or the entiresummer between the semesters with industries. Several students from the departments ofelectrical and computer engineering, mechanical as well as chemical engineering areexpected to participate in this experiential learning program. Each student will have twomentors, one from the industry and the other is a faculty member from the student’s parentdepartment. The year-long program offers the student the opportunity to participate indesign projects at a level which is not possible with the more traditional summer orinternship employment. In addition to the design experience, students will have benefits incommunication skills, exposure to industrial standards, safety training and
willtake more than 20 years to complete, but the process itself could touch off a new industrialrevolution. Nanotechnology is likely to change the way almost everything, including medicine,computers and cars, are designed and constructed. This will create a demand for a largeworkforce of highly qualified and trained technicians and technologists to run the processesneeded, to troubleshoot this expensive equipment and to assist in the development of nanoproducts. Page 9.993.2 “Proceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition. Copyright © 2004, American Society for Engineering"Penn
has been incorporated into a coursetitled “Computer Integrated Manufacturing” (MET-445) in the Mechanical EngineeringTechnology Program at ODU. A number of organizations have failed in the implementation of LeanManufacturing by failing to sustain it [2], [3] & [8]. This is primarily due to lack ofsufficient number of trained employees to reach a critical mass for organizationaltransformation. Training all employees in the principles of Lean is a critical part of Leanimplementation process. Educational institutions can do their part by incorporating Leanwithin their curriculum. Changes in the CIM course are designed for two reasons. One toupdate the curriculum and second to produce graduates who are familiar with thisimportant
Session 3247 Integrating Design and Manufacturing Concepts to Strengthen Advanced Technological Education Programs Joseph C. Chen and Jacob Chen Department of Industrial Education and Technology Iowa State University, Ames, IA 50011 AbstractRecent changes in the global business environment dictate the need for engineeringtechnicians to obtain new skills in design-for-manufacturability, computer-aided design,teamwork, and communication. In addition, there is a significant workforce shortage ofengineering technicians across the
to Control andInstrumentation Engineering Technology students at the University of Houston –Downtown. Theobjective of this course is the computer aided design and optimization of process operations.Processes are selected from major industrial sectors such as chemical, refining and bio-processes.Modeling and simulation of these processes is facilitated by using the Aspen Engineering suite oftools. Such tools are widely used by the process industries to design and optimize processoperations. By completing this course, students learn about different processes, equipment andoptimization techniques. Groups of three to four students work together on team projects. Theorganization, execution, and results from such projects demonstrate the skills
Information Literacy: Skills for Life Andrea L. Welker, Barbara Quintiliano, and Louise Green Civil and Environmental Engineering Department, Villanova University/Falvey Memorial Library, Villanova Univerisity/ Falvey Memorial Library, Villanova UniverisityIntroductionThe amount of information available to our students is increasing rapidly every day and they canbe easily overwhelmed with the variety and complexity of it. In addition, because they are soadept at using computers, many students over-estimate their abilities to search for, organize, andutilize information. These students believe that they already have the ability to sift out
Conference & Exposition Copyright 2002, American Society for Engineering EducationThe PC-based characterization platform can be seen on the left in Figure 1. Currently, the analogelectronics laboratory is equipped with eleven of these stations. This allows introductory students tobecome familiar with mixed signal test concepts without having to tackle the steep learning curveassociated with an ATE. To provide the same types of instrumentation as the ATE, each platform isoutfitted with a personal computer, a National Instruments’ multifunction data acquisition card, ageneral-purpose interface bus (GPIB) card, and a traditional set of analog electronics bench equipment(oscilloscope, function generator, power supply