, and the “manager” was available only via email for five of those days.Students were given one laboratory session to work on their designs, but as a few groupsdiscovered, they needed time outside of class to fully implement the design, including designing,programming, and testing the design. Some design teams, especially groups who did not have amember with experience in industry, thought that their circuit would certainly work once it wasprogrammed into the chip. They had the experience of demonstrating a circuit that did not workto their customer. This gave the opportunity to discuss differences between a typical laboratoryproject (if it doesn't work, continue with assistance) and an industrial project (with a firmdeadline).After the
://www.foundationcoalition.org/publications/brochures/2002-Feb- 27_Assessment_Attitudes_and_Skills.pdf Peer Assessment and Peer Evaluation http://www.foundationcoalition.org/publications/brochures/2002peer_assessment.pdf 9. King, R.H., Parker, T.E., Grover, T.P., Gosink, J.P., Middleton, N.T., “A Multidisciplinary Engineering Laboratory Course”, Journal of Engineering Education, July 1999, pp.311-316 10. Pandy, M.G., Petrosino, A.J., Barr, R.E., Tennant, L. Seth, A. “Design, Implementation, and Assessment of an HPL-inspired Undergraduate Course in Biomechanics, Proceedings of the 2003 ASEE Annual Conference & Exposition, Session #2109. 11. Yokomoto, C.F., Rizkalla, M.E., O’Loughlin, C.L., El-Sharkawy, M.A
Session 2326 A Simple Beam Test: Motivating High School Teachers to Develop Pre-Engineering Curricula Eric E. Matsumoto, John R. Johnston, E. Edward Dammel, S.K. Ramesh California State University, SacramentoAbstractThe College of Engineering and Computer Science at California State University, Sacramentohas developed a daylong workshop for high school teachers interested in developing andteaching pre-engineering curricula. Recent workshop participants from nine high schoolsperformed “hands-on” laboratory experiments that can be implemented at the high school levelto introduce basic
Interaction, John Wiley &Sons, Inc., New York, NY.13. Prey, J. C., Baldwin, D., Reek, M., Popyack, J., Now for the laboratory experience! The view from four differentundergraduate computer science curricula, 28th ASEE/IEEE Frontiers in Education Conference, 3, 1337-1338, 1998.14, Rosson, M.B., & Carroll, J.M. (2002). Usability engineering: Scenario-based development of Human-ComputerInteraction, Morgan Kaufmann Publishers, San Diego, CA.15. Shared Software Infrastructure Hub, Texas A&M University, web site at http://ssi7.cs.tamu.edu/ssi/16. Shneiderman, B., & Plaisant, C. (2005). Designing the user interface, 4th Ed., Addison Wesley Pearson Education, Inc.,Boston, MA.17. Software Engineering Institute, CMMI Web Site, http
for any system they are asked to design,they will be expected to interact effectively with people of widely varying social and educationalbackgrounds. They will then be expected to work with people of many different technicalbackgrounds to achieve these goals. They thus need educational experiences that can help themdevelop these skills.Community service agencies face a future in which they must rely to a great extent upontechnology for the delivery, coordination, accounting, and improvement of the services theyprovide. They often possess neither the expertise to use nor the budget to design and acquire atechnological solution that is suited to their mission. They thus need the help of people withstrong technical backgrounds.Service learning
problems. Wales and hiscolleagues believed this philosophy contained five basic principles of teaching: (1) Guide thestudents’ learning by providing them with a series of experiences that build on each other, (2)Provide opportunities for students to apply and practice skills, (3) Evaluate responses andprovide feedback, (4) Motivate or reinforce the learner, and (5) Individualize to the learner’sstyle. The goal of guided design is not to get the correct answer, but to know the process bywhich one gathers information, processes information, and arrives at an acceptable solution.8Service-learning as a curricular educational approach has existed for years in higher educationand has been embraced by the engineering field as containing the benefits of
those devices even better? Electricalengineers and technologists spend most of their time learning how these technologieswork and developing new ways to improve them.This course emphasizes practical, hands-on laboratory work that is closely coordinatedwith theoretical classroom discussion. The course focuses on both standard and wirelesscommunication systems.Course Learning Outcomes • Understand basic concepts of Electronics and circuit design; • Understand how electronic communication systems work and their application to daily life; • Understand concepts of radio frequency (RF) propagation, including AM/FM modulation; • Understand the different types of transmitting media; • Understand the architecture of a wireless
design and development of pilot testing facility, mechanical instrumentation, and industrial applications of aircraft engines. Also, in the past 10 years she gained experience in teaching ME and ET courses in both quality control and quality assurance areas as well as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation course as well as for quality control undergraduate and graduate courses in ET Masters program. Also, she
Business 1.00 1.00 1.50 2.00 2.50 3.00 3.50 4.00 4.50 5.00 Importance Page 5.208.4Figure 2 An understanding of and Ability to apply knowledge of: 5.00 Experiment 4.50 Analyze Data Ability/Preparation 4.00 Design System
Session 3464 Teaching About Materials Using Electronic Devices Sarah E. Leach Purdue UniversityAbstractIntroductory materials courses must, of necessity, contain a great deal of theoretical andfoundational information about the structure and properties of materials. Materialcategories are often studied separately, with comparisons being made between types. Thispaper describes a laboratory experience designed to bring together different types ofmaterials, by studying complex manufactured devices. Many electronic packagingsystems, including chip carriers and thick-film
Internet is available.The PROJECT is designed for demonstration of undergoing research projects with pictures andpresentations including project design (literature review, scope, methodology and expectedresults), laboratory information (device or equipment) and project discussions (online talks orseminars). This part allows student to involve current projects and to initiate new senior projectswhich are one of the requirements for graduation in the Department of Civil Engineering.Further improvement of the web site teaching will concentrate on the design for onlineassignments such as homework, quiz and comprehensive exams. Technically speaking, in thedesign of pages themselves, HyperText Markup Language (HTML) has been utilized.Embedded also are
-of-the-art telecommunications networks but also exhibit hands-on lab experience andskills with RF equipment and tools.To cater to these changing industrial needs, it is imperative that a wirelessengineering course be incorporated in the Electrical Engineering curricula of allcolleges, technical institutes and universities.The course should include: 1.Core courses in wireless emphasizing wirelesscommunication systems, networks accompanied with wireless communicationlab. 2. It should be supported by hardware specialization in RF electronics, Digitalsignal processing. 3. The laboratory course must include design and developmentof various types of antennas and measurement and testing methods.The following case study deals with the design and
but they are asked to submit the presentation inPowerPoint or PDF slides. There were five software exercises in 2016 as part of the software laboratory section.These “experiments” included: • Active Filter circuit • Input/Output Fourier Transforms, Energy Spectral Densities • Higher-Order Filter Differential Equation Model and Simulation • Filter Approximations (e.g., Butterworth, Chebyshev) IIR Design Problem • FIR Digital Filter DesignThese exercises were helpful when covering seemingly abstract concepts as part of the lecture. It is noted thatexamination questions were are paper, pencil type computation/design problems using a formula page and anengineering calculator. Students did very well in the laboratory
Implementing an Engineering Teaching Development Program for Graduate Student Instructors Sara Soderstrom1, Christian Lorenz1, Michael Keinath1 and Trevor Harding2 1 University of Michigan, Ann Arbor, MI/2Kettering University, Flint, MIAbstractThe Engineering Teaching Development Project (ETDP), a pilot program started by the studentchapter of ASEE at the University of Michigan, is a multi-component program designed toimprove the long-term teaching skills of graduate student instructors (GSIs) in the College ofEngineering. The first component of the ETDP is college-wide pedagogical workshop series.These workshops are conducted by nationally recognized engineering educators invited by theASEE
Director files concerning different Thermodynamictopics, an hypermedia system which assist the cognitive mapping of concepts to proceed in non-linear fashion, a set of simulation programs for virtual laboratory work and three specific tools:Thermograph, that allows the analysis of Thermodynamics concepts by drawing processes orcycles and editing them on the screen, and ARIES and PropSust for the resolution of problems.Figure 10 shows the reached level of development for the different type of materials and the waythey are been used combined with the different methodologies along the course.Most of the materials have been ready to be used by the students very recently. As GAME facili-tates de design and realization of experiences in order to study
on the first day of instruction, students are encouraged to explore how the use ofsupplementary cementitious materials (SCMs) can increase the amount of recycled content in theconstruction of a building. This theme continues as the students are required to develop and implement aplan to optimize the amount of granulated ground blast furnace slag, fly ash, and silica fume that can beincluded in a concrete mixture without adversely affecting characteristics such as strength, stiffness, andworkability. After gathering data through hands-on laboratory testing, the students prepare a reportrecommending an optimal SCM content. This instruction method can fit easily into the existing curriculum of most undergraduatereinforced concrete design
on the first day of instruction, students are encouraged to explore how the use ofsupplementary cementitious materials (SCMs) can increase the amount of recycled content in theconstruction of a building. This theme continues as the students are required to develop and implement aplan to optimize the amount of granulated ground blast furnace slag, fly ash, and silica fume that can beincluded in a concrete mixture without adversely affecting characteristics such as strength, stiffness, andworkability. After gathering data through hands-on laboratory testing, the students prepare a reportrecommending an optimal SCM content. This instruction method can fit easily into the existing curriculum of most undergraduatereinforced concrete design
on the first day of instruction, students are encouraged to explore how the use ofsupplementary cementitious materials (SCMs) can increase the amount of recycled content in theconstruction of a building. This theme continues as the students are required to develop and implement aplan to optimize the amount of granulated ground blast furnace slag, fly ash, and silica fume that can beincluded in a concrete mixture without adversely affecting characteristics such as strength, stiffness, andworkability. After gathering data through hands-on laboratory testing, the students prepare a reportrecommending an optimal SCM content. This instruction method can fit easily into the existing curriculum of most undergraduatereinforced concrete design
paper, we present a pedagogy that seamlessly integrates the modernconcepts to the existing conventional methods for teaching distributed systems. Wepropose a set of laboratory experiments that will not only illustrate how to integrate thenewer concepts into existing framework but will also provide the students with hands-onexperience in the application of these concepts. The design and description of threelaboratory projects that cover newer topics in Distributed Systems, namely, (i) location-independence, (ii) active discovery and (iii) interoperability and persistence are shown.These projects will serve as models for development of similar projects illustrating otherconcepts of interest. A major contribution of this paper will be the pedagogy
is helpful to understand our positionality and, therefore, the lensthrough which we analyze the literature. The first author is a white, female U.S.- born engineerwith experience in product development and expertise in the field of materials science andengineering. She is a developing engineering education and formation researcher. Second authoris a white, female U.S.- born undergraduate engineering student. The third author is a white,female U.S.-born scholar with expertise in empathy research and scale design with a very limitedknowledge of engineering training and education.Discovery, Inclusion, and Selection To gather potential articles for this review, we utilized our university library’s Primodiscovery service. This service
comprised of the ElectricalEngineering, Electrical and Computer Engineering Technology, and the Engineering TechnologyPrograms with approximately 300 majors. Traditional lectures are complimented through hands-on laboratories for most subject areas where the design, build, and test model may be used toreinforce theory. In an effort to strengthen program outcomes and make the learning experiencemore relevant to industry practices, the department restructured the senior capstone courses in2008 by partnering with the Center for Rapid Product Realization and using interdisciplinaryproject teams that engage the local region.The Center for Rapid Product Realization at Western Carolina UniversityThe mission for the Center for Rapid Product Realization is
course has been carefully designed to include a variety of "best practices" to help preparechemical engineering students in their first course in the curriculum. The course involves fivetwo-week projects where students work in teams to complete problems covering a range ofmaterials and, at the same time, practice teamwork and professional skills. Additionally, eachproject involves a complex laboratory experiment and use of process simulation software(HYSYS) problems. This work is carefully guided by the course instructors in a way to promoteindependent learning while assessing the desired outcomes. Assessment for this course has beenongoing and involves a range of data from team self-reports, before and after project conceptinventories
specific major or discipline -- courses that provide information on one particular major or a subset of disciplines/career options, along with an introduction to selected skills, competencies and resources; Topical -- courses designed around a topic or contemporary issue in engineering (failure analysis, sustainable design, digital music, ethics, etc.) or an interdisciplinary or emerging field (manufacturing management, bioengineering, the environment, etc.) and featuring exposure to the academic skills associated with information gathering, research, interpretation and presentation;Hands-on or laboratory -- courses that feature hands-on activities, laboratory experiences and/or team projects that will acquaint students with
as some sort of markers on the sample. In the upgrade reported here, a controlcircuit was designed to eliminate such restrictions. The circuit brought additional functionalitiesto the system so that it could directly communicate with a computer and could be programmed tomove the microscope stage and lens on a pre-defined path. This circuit was developed usinginexpensive discrete components. The modified microscope required no direct hardwareintervention by the user to move the stage and the lens. For repetitive experiments, thismicroscope brought the flexibility by programming once and letting it process on the predefinedcourse. Proceedings of the 2013 ASEE Gulf-Southwest Annual Conference
these demands new curriculum was designed and introduced at Edith CowanUniversity to incorporate internationally recognized, industry based certification as part ofstandard undergraduate education. This new curriculum provides the opportunity forstudents to obtain A+ Certification in computer support and Novell Certified NetworkEngineer (CNE) standing. This approach of incorporating commercially based education, aspart of the curriculum, is now progressively being introduced by other universities withinAustralia. Experience to date indicates some success but significant inadequacies in standardstudent evaluation procedures were detected. The authors designed a new competency basedapproach to student evaluation that: can generate meaningful
and real estate development companies in Brazil. Her research in- terests include team work and collaboration in construction, effective communication in spatial problem solving, and design - field team interaction.Mr. Mark Shaurette, Purdue Polytechnic Institute Mark Shaurette has a MS in Civil Engineering from the Massachusetts Institute of Technology and a PhD in Technology from Purdue University. He is currently an associate professor at Purdue University, was a 2012 Fulbright Scholar in Ireland, and has work experience that includes 30+ years of senior construction management practice as well as work as a research engineer for the National Association of Home Builders Research Foundation. He is active in
built a full scale construction laboratory wherecadets experience building design and construction methods by doing it themselves. The AeronauticalEngineering Department teaches flight test by putting cadets in Cessnas and having them do flighttest. Those of us teaching Astronautical Engineering, here and at other schools around the country,face an especially difficult challenge in this regard. We can’t put our students in space and it is verydifficult and expensive to put their projects there. Space educators and experimenters are nothing if not innovative. They’ve used a variety ofmethods to get student projects into space, close to space, at least, into a regime that’s a lot like space.Sounding rockets in a variety of sizes are used
experiments can not be effectively converted for on-line delivery.Several classes may be designed for so called “Hybrid” to accommodate hands-on laboratorysessions. Therefore, there is the possibility of requiring on-line students to have an on-campusweekend to participate in the laboratory exercises.Another challenge facing the project team involves marketing the program to increase awarenessand interest in the program with the ultimate objective of increase enrollment. The projectdirector currently coordinates all the student recruitment tasks with the support from the teammembers. The project team intends to seek help from other groups within the university toaddress challenges in this area.We have gained substantial experience in developing
: What is the intended audience? (Supervisor, colleagues on the same project, colleagues working on different projects, technically-trained audience unfamiliar with the details of the project, non-technical adult audience, children)• Purpose: What is the purpose of this report? (Publish new findings or novel designs; provide Page 12.810.10 information to management for decision-making; give technical information to colleagues; establish instructions for processes or procedures; arouse curiosity)• Formality: What is the expected degree of formality? (Published journal; formal laboratory report; memorandum; informal note
Session 1722 Wireless Technology as a Tool for Interactive Learning in Electrical Engineering Courses Fernando Rios-Gutiérrez, Rocio Alba-Flores Electrical and Computer Engineering Department University of Minnesota Duluth friosgut@d.umn.edu, ralbaflo@d.umn.eduAbstractThis paper describes the educational experience gained by the introduction of wireless computertechnology that is used as a learning tool in the Digital System Design and MicroprocessorSystem Design courses in the Electrical and Computer Engineering