candidate for replacing the Intel microprocessors that werepreviously used in the class. Unfortunately, Intel has discontinued their line of MCS51 andMCS251 microcontrollers. Currently, major manufacturers of microcontrollers include:Freescale, (formerly a division of Motorola), Atmel, Analog Devices, and Texas Instruments.This paper will detail the integration of the Freescale microcontrollers in our Digital ComputerAnalysis course. The rationale for using Freescale microntrollers will be discussed. FreescaleCodeWarrior was used to debug, compile, and download the assembly programs. A curriculum ispresented along with laboratory experiments used in the class. Several options for textbooks arealso presented.I. Introduction
has over 14 years of experience in applied research and teaching. Dr. Traub is the author of over 45 reviewed journal articles and 10 conference papers. Page 13.693.1© American Society for Engineering Education, 2008 IMPACT OF RAPID PROTOTYPING FACILITIES ON ENGINEERING STUDENT OUTCOMESAbstractEmbry-Riddle Aeronautical University (ERAU) has formed a reputation for providingundergraduate students with a curriculum which has a strong emphasis on hands-on, applicationbased learning. In an effort to improve this learning environment, the campus has recently addeda Rapid Prototyping Laboratory which
traditional engineering coursewith roots in Electrical Engineering that is a required course in many biomedical engineeringprograms. We designed a BME curriculum that includes a Linear Systems course as a co-requisite with a Physiology for Biomedical Engineers course. Students analyze data collected inthe laboratory portion of the physiology course as part of Linear Systems course assignments.We aligned the topics to explicitly incorporate two physiology experiments that facilitate a jointlearning experience. In the first experiment, students collect EEG data in the physiologylaboratory and analyze the frequency content of that data in Linear Systems. In the secondexperiment, they study speech production in the physiology laboratory and perform a
hardware, software and courseware learning ecosystem that has beencreated to capture student attention and develop a broader skill set. Laboratory and in-classexercises use POGIL (Process Oriented Guided Inquiry Learning) – based laboratory modules toengage students in learning through exploration, critical thinking, and team and cooperativeparticipation exercises. Laboratory and in-class exercises are designed to teach the student howto explore a new technology to be able to learn more about it. In fact, learning how to learn is akey outcome. Laboratory hardware is designed to provide easy connection to real-world devicesand allow students to extend their explorations from classroom theory to the practical applicationof technology they are
IMPARTING CONSUMMATE INSTRUCTIONS IN MICROELECTRONICS ENGINEERING AND VLSI TECHNOLOGY AT THE UNIVERSITY OF MASSACHUSETTS, LOWELL Kanti Prasad Ph.D.; P.E. Professor/Founding Director Microelectronics/VLSI Technology Electrical and Computer Engineering Department University of Massachusetts Lowell Kanti_Prasad@uml.eduAbstract:For consummate VLSI program, theoretical instructions must be complemented withadequate laboratory facilities in order to validate the design from its conception to thefinished chip along with its real time testing. This comprises of
IMPARTING CONSUMMATE INSTRUCTIONS IN MICROELECTRONICS ENGINEERING AND VLSI TECHNOLOGY AT THE UNIVERSITY OF MASSACHUSETTS, LOWELL Kanti Prasad Ph.D.; P.E. Professor/Founding Director Microelectronics/VLSI Technology Electrical and Computer Engineering Department University of Massachusetts Lowell Kanti_Prasad@uml.eduAbstract:For consummate VLSI program, theoretical instructions must be complemented withadequate laboratory facilities in order to validate the design from its conception to thefinished chip along with its real time testing. This comprises of
AC 2008-937: INCORPORATION OF BROADBAND ACCESS TECHNOLOGY INA TELECOMMUNICATIONS ENGINEERING TECHNOLOGY PROGRAMWarren Koontz, Rochester Institute of Technology Warren is currently a professor in the College of Applied Science and Technology at RIT and chair of the Telecommunications Engineering Technology program. He joined RIT in December 2000 after retiring from Bell Laboratories. He began his thirty two year career at Bell Labs as a member of technical staff in the Electronic Switching Division in Naperville Illinois. He was involved in a variety of projects at a variety of Bell Labs locations, including international assignments in The Netherlands and Germany. At the time of his retirement, he
laboratory experiments are typical examples of active learning.Depending on the course objectives, the laboratory experiments are either of a cookbook typewhere students follow a set of instructions and all produce similar results, an organized projecttype where the instructions are not precise and allow for some creativity, an open-ended projecttype where the course instructor has a reasonable knowledge of the final outcome, or researchwhere neither the students nor the instructor know the final outcome of the experiments. Thedescribed experiment falls in the organized project type category since the given instructions arenot precise. In addition, the steps whereby students analyze the obtained results, compare themwith the results obtained by
AC 2008-363: REAL-TIME, EMBEDDED-SYSTEMS NETWORKING: A NOVELWAY TO DEVELOP AN INTERACTIVE UNDERGRADUATE COURSEEce Yaprak, Wayne State University Dr. Ece Yaprak is a Professor of Engineering Technology in the College of Engineering at Wayne State University. Her areas of interest include computer networks and communications where she has published extensively. She has held engineering positions at General Electric and Ford Motor Company, and research fellowships at NASA (John Glenn, Jet Propulsion Laboratory, Ames Research Center, and the Johnson Space Center) and the U.S. Navy (SPAWAR). She has received teaching excellence awards from her Division and the College of Engineering. She has received
associations between students’ perception of the importance of the faculty teaching techniques [in terms of lectures, use of a variety of technological teaching tools, use of PowerPoint, use of a variety of teaching strategies, coordinating laboratory work with lecture, organization and preparation of class/laboratory activities, use of group presentations, use of individual laboratory projects, and providing timely feedback on class/laboratory projects] and student’s self-reported success/learning (expressed in terms of self-reported technical competency and GPA), as perceived by seniors in the EET program? 4. Are there associations between students’ perception of the
D. Sweeney Department of Bioengineering, U.A. Whitaker School of Engineering Florida Gulf Coast UniversityAbstr actTeaching a first course on electrical/electronic circuits to bioengineering students with noprevious background poses a significant challenge. An integrated lecture-lab approach is beingdeveloped at Florida Gulf Coast University with the incorporation of the ELVIS (EducationalLaboratory Virtual Instrumentation Suite) workstation from National Instruments and its virtualinstrumentation package, in addition to the traditional set of instruments. The initial experienceindicates that integrating laboratory practice and lecture can increase student motivation andinterest, particularly
voltage constant, kE; to determine motor torque constant, kT;to explore the use of a dynamometer to measure the conversion of electrical energy intomechanical energy; and to investigate the use of a motor as a generator. Despite the low-costequipment, experimental results proved to be reliable, accurate, and repeatable. For example, themotor kE – kT match was typically found to be within 5%. Student learning was assessedthrough questionnaires at the beginning and end of the laboratory period. The questionnairesaddressed both student knowledge and student confidence levels. The assessment showed asignificant overall increase of both student knowledge and confidence scores as well assignificant incremental increases. The data also showed that each
. Page 13.626.1© American Society for Engineering Education, 2008 Freshman Engineering: An Introductory Computer Course Teaching MATLAB and LabVIEWAbstractThis paper will describe the adaptation and implementation of a revised curriculum for ClarksonUniversity’s freshman engineering course ES100: Introduction to Engineering Use of theComputer. The objective in ES100 is to teach engineering problem solving using both MATLABand LabVIEW. The course was previously taught by Clarkson University’s four engineeringdepartments without the implementation of a common curriculum. Through the award of aCourse, Curriculum and Laboratory Improvement, Adaptation and Implementation (CCLI A&I)grant by the National Science
applications.Slobodan Petrovich, Arizona State University Slobodan Petrovic is an associate professor at the Arizona State University at the Polytechnic Campus. He received B.Sc. in physical chemistry from the University of Belgrade, Serbia and Ph.D. in Chemistry from the Technical University of Dresden, Germany. He has over 20 years of experience in various areas of technology such as fuel cells, Si processing, catalysis, and sensors.Govindasamy Tamizhmani, Arizona State University Govindasamy Tamizhmani (Mani) is an associate professor of Department Electronic Systems and the director of Photovoltaic Testing Laboratory at Arizona State University. Dr. Mani has over 24 years of research experience and 7
authored more than 25 refereed journal and conference publications. From 2003 through 2006, he was involved with Argonne National Laboratory, Argonne, IL in developing direct computer control for hydrogen powered automotives. He is also involved in several direct computer control and wireless process control related research projects. His interests are in the area of industrial transducer, industrial process control, wireless controls, statistical process control, computer aided design and fabrication of printed circuit board, programmable logic controllers, programmable logic devices and renewable energy related projects.Niaz Latif, Purdue University Niaz Latif, Purdue University Calumet Dr. Niaz
bridged by the future engineers that are acquainted with suchtechnologies. In order to fill that gap and fulfill the industrial manpower needs, the number ofsuch individuals is to be increased. That can be achieved by developing next-generationlaboratory learning environments, which provide hands-on experience for on-campus and off-campus students. For this reason, user-friendly, web-based applications are built as a way to giveaccess to off-site students. A laboratory motorized hardware system is assembled in order toprovide RFID technology testing setups. The overall environment is empowered by aprogramming language that yields remote agent control, RFID data acquisition, and abstractcomputations. Furthermore, the website contains online
proximity data from the sensors to a sink node for data and decisionfusion. Similarly, simple probability concepts taught at the junior level can be illustrated withsimple experiments.Aiming at a tight integration of theoretical concepts with a hands-on laboratory experience, wedesigned modular experiments to be used as a platform to naturally improve understanding ofnetworking and concepts in other courses such as DSP, stochastic and non-deterministic systems,biomedical imaging, as well as freshman and senior design projects. This will provide the Page 13.766.2students with an exciting learning environment and will make the mastery of important
course sequence is used for ABET accredited majors.This paper presents the approach used by the Electrical and Computer EngineeringDepartment at the Naval Academy to improve the technological literacy of non-engineering students. Electrical engineering fundamentals and applications areemphasized with the relevant mathematics introduced as needed. Applications of thefundamentals evolve to stress the relevance of a particular topic area. Key technicalconcepts are reinforced with practical laboratory exercises. The final practical exercisetakes place aboard a Naval Academy patrol craft. The students explore the electricalsystems on the ship and relate them to the fundamentals studied during the semester.Course outcomes show that students across a
,integrating a multifunction lecture/laboratory/wireless computer room at Penn State has allowedthis combination of learning into one environment.This multifunctional room comprises of wireless tablet portable computers which are hidden andsecured in mobile work stations. Each wireless tablet portable computer houses variousprograms, instructional aids, document resources, and has access to the university network forlab and lecture use. The mobile tables, which tablet portable computers are housed in, areflexible and can be reconfigured to meet students’ need for working in groups. This facilityprovides faculty and students the flexibility through lab and/or lecture use and interactionthrough multi-platform user interfaces.This paper will discuss the
Embedded Design in a Sophomore CourseAbstractRecently in academia, a push has emerged to include engineering design early in a student’s coursesequence. The desired result is to captivate the student’s interest in engineering before the student hashad a chance to change majors. Otherwise, the student would not experience the design process until thecapstone courses in the senior year. In this paper, an embedded design project in a sophomore course ispresented. The design project is based on the USB Toolstick from Silicon Laboratories. The USBToolstick is an 8051 series microcontroller that is self contained, economical, and very student friendly.What follows is a discussion of the sophomore course, an overview of the USB Toolstick, and examplesof
critical concepts, the most recentevolution of ME450 incorporated four new laboratory exercises intended to challenge 60new students to delve into specific aspects of the assigned EDPs and, by doing so, derivea better appreciation of the complexity of the technical problems involved.In order to facilitate student learning, a crawl-walk-run methodology was employed forthe four new laboratories. This approach was based on United States Army TrainingDoctrine.2, 3 While this may at first seem to be an unlikely source of inspiration forteaching in an academic environment, the Army has, in fact, been focused on effectivelyteaching complex subject matter to college-aged students for literally hundreds of yearsand therefore has a wealth of institutional
mutually exclusive, an optimal firstengineering course would benefit from adopting the best characteristics of each. By balancingthese different philosophies, it may be possible to design a course that is more effective than anyone philosophy could be. We have attempted to design such a balanced course, modeled afterwork done at Purdue University9, which helps students to learn the fundamentals of severalengineering disciplines and build interdisciplinary connections among those disciplines, and wedo so through a balance of traditional classroom and hands-on laboratory and design experiences. Page 13.63.33. GE 100 OverviewValparaiso University’s
classes. The space wasdesigned for using multiple modes of instruction and for moving a class quickly from one modeof learning to another. The facility allows for quick small group activities, simple laboratoryexperiments, computer work and simulation, and mini-lectures. It was particularly designed withthe needs of our first-year program in mind.The space was renovated from a 30 by 24 foot Computer Engineering laboratory. The renovatedspace consists of four clusters designed to seat six students each. One wall of the room has alaboratory bench and storage. Each cluster consists of a fixed trapezoidal center for computersand services. On three sides of this central core are three trapezoidal tables where students work.Two computers are included
biological compound.2 In many of the later stages ofpurification, over 50% use some type of chromatography.3 Exposing students to Page 13.685.2biochromatography provides an introduction to bioseparations and the underlying biochemistryconcepts. As separation processes are based on the physical and chemical properties of theproduct and chief impurities, a wide range of concepts can be included, such as overall cellcomposition, protein biochemistry, recombinant protein production techniques, and bioprocessoptimization.These concepts can be introduced by improving undergraduate courses and laboratories throughthe development of exciting, visually-appealing
thatthe first target of our vision was the need for updating and reconfiguring some spacewithin departmental facilities. The core electronics project lab was chosen to become thenew eStudio Laboratory, targeted for many improvements. The lab had been functioningadequately, but by the standards envisioned by the committee and the department, it wasquite lackluster. It had become a repository for equipment used quite infrequently, and averitable storage space for odds and ends that had been donated, cast off by industry,faculty, and other donors. Few were eager to discard or find a more permanent storagelocation for these cumbersome items, and only after the committee unveiled its vision forthe new space did the separation anxiety begin to
13.1242.2listening to a lecture.3 Undergraduate research also is a recognized method encouraging studentsto pursue graduate studies.4 Research laboratories that participated in the program were theLaser Micromachining Laboratory, the Experimental Fluid Mechanics Laboratory, the ResearchCenter for Advanced Manufacturing, the Laboratory for Micro- and Nano-Mechanics ofMaterials, the Laboratory for Porous Media Applications, and the Thermal-Fluids Laboratory. Several methods were used to advertise the REU program to potential applicants. Thefirst was the development of a website to serve as a central source of information for allinterested applicants. The website included program location and dates, student stipend, housingand dining information, a list
on bioprocess engineering.The protein production project was developed and implemented during the fall 2006 semesterand repeated during the fall 2007 semester. A key element of the protein production project wasthe competition between student groups. Group performance was rated using a productionrubric, and the team with the highest score was guaranteed an “A” on the project. The rubricincluded equipment rental costs and production bonuses for producing large quantities of proteinof high purity. The equipment rental costs were carefully determined to encourage continuedstudent experimentation in the laboratory. The competitive nature of the project capturesstudents driven by achievement or instrumental types of motivation, which are not
significant difference in test scoresbetween students using computer simulation and those who are using traditional lab equipment.However, combining both practices in a hybrid environment5 can offer clear advantages sincestudents will be able to compare their simulated results with actual experimentations. Therefore,our electronics courses were redesigned to use Multisim in conjunction with traditional labactivities. Multisim6 is a popular simulation program used by many engineering educators for itsfriendly interactive features. It has virtual instruments resembling actual laboratory environment.Course AssessmentsContinuous improvement is an important issue for Engineering Technology programs because itdefines the framework for assessment and
departments. In August 2006, Professor John Dempsey invited agroup of sophomore engineering students who had just taken the class to attend a workshop onthe course to share their experiences. This workshop resulted in the introduction ofundergraduate teaching assistants (UTAs) in each ES100 classroom.These UTAs provided, and continue to provide, input on revisions for many aspects of ES100,including course format, topics covered, and laboratory experiments. In particular, the UTAswere able to use their experiences in ES100 to assist in the redesign of course materials to bemore consistent, uniform, and mainstream, assisting in Professor Dempsey’s goal of making allengineering freshmen at Clarkson feel comfortable using MATLAB and LabVIEW. In
education in physics. Dr. Kezerashvili was organizer and chaired NYSS of the American Physical Society Symposium “Physics of Microworld” in 2004, conference “College Physics in 21st Century” in 2000 and chaired sessions on numerous national and international conferences, authored and coauthored more than 100 publications and books: “Computer-based College Physics Laboratory Experiments”, “Experiments in Physics”, “College Physics Laboratory Experiments” and “Problems in Physics and Mathematics.” He is a member of the American Physical Society and the American Association of Physics Teachers.Janet Liou-Mark, New York City College of Technology Janet Liou-Mark Dr