theCommunity College of Allegheny County. Those with the appropriate background will be able totest out of the first three semesters. The schedule of courses for the first three semesters is asfollows:First Semester Introduction to Parametric Modeling (3 credits) Introduction to Electronics (3 credits) Engineering Seminar (1 credit) Mathematics for the Technologies 1 (4 credits) Technical Physics 1 (3 credits) Technical Computing (3 credits) Total Credits 17Second Semester Introduction to Chemistry (4 credits) English Composition 1
. Online learning environments should strive to engage students across all three levels.In the undergraduate PRODUCED program developed at the University of Virginia, studentsconnect into their education environment using two university-provided software collaborationtools, a university e-mail account, and the following items that they themselves must provide: An up-to-date laptop with a reliable high-speed internet connection (i.e., 1 megabit per second download speeds), A computer –based audio solution with microphone and speakers (e.g. headset, desktop speakerphone), and Either a scanner or smartphone equipped with an appropriate pdf creation app for rapid generation of digital documents (e.g
components. Usingan application-oriented, hands-on approach, the course addresses only the salient math topicsactually used in a variety of core engineering courses. These include the traditional physics,engineering mechanics, electric circuits and computer programming sequences. The EGR 101course replaces traditional math prerequisite requirements for the above core courses, so thatstudents can advance in the engineering curriculum without having completed a traditionalfreshman calculus sequence. This has enabled a significant restructuring of the engineeringcurriculum, including the placement of formerly sophomore-level engineering courses within thefreshman year. The WSU model concludes with the development of a revised engineeringmathematics
Society for Engineering Education Annual Conference & Exposition Copyright 2003, American Society for Engineering Education2. Be prepared to test several vacuum systems for leaks to see if they pass or fail to meet the design specifications. The test can only last 40 seconds, and will start at 27.0 in Hg. A computer controlled experimental data acquisition system will be used to monitor the vacuum level for the 40 second tests and determine the drop in vacuum level during that time. Be prepared to predict the maximum or critical 40 second vacuum level drop, (Apv)c, that can be tolerated by the design specification at various extreme atmospheric conditions such as might be found in Rochester, Michigan
include: • The ability to find and analyze both print and web-based information sources. • The ability to use computer spread-sheet and mathematics packages, such as EXCEL and MATHCAD. • The ability to use computer-based computation tools specific to the discipline. • The ability to communicate effectively in both written and spoken English. • The ability to use common communication tools, such as WORD and POWERPOINT.Possible impact on a typical current curriculumConsider how the minimum core approach would impact a typical BSChE curriculum – forexample, the one at the University of New Mexico. It currently consists of 132 semester hours,distributed as follows: Required math and science courses
, neural networks, and fuzzy logic to telecommunications and control systems. E-mail: Blanton@etsu.edu Page 15.233.1© American Society for Engineering Education, 2010 BIOMEDICAL ENGINEERING E-BOOK GENERATIONAbstractA 164 page e-book completely self-produced by the author on a desktop computer, MedicalImaging Equipment Theory, presented as a permanently accessible PDF file, is described. Thisbook is written at the junior/senior level in biomedical engineering. An e-mail list of roughly2000 addresses was generated from the membership files of the American Society forEngineering Education (ASEE), the Association for the
Institute ofScience, Bangalore in 2003. This project is funded by the Ministry of Human ResourceDevelopment, a branch of the Indian government and is an online curriculum developmentprogram in sciences and engineering at university and research levels [37]. 235 courses inweb/video format were developed considering five core disciplines: mechanical engineering,civil engineering, computer science and engineering, electronics and communicationengineering, and electrical engineering. An additional 600 web video courses were created inmajor branches of engineering, and physical sciences at the undergraduate, and postgraduatelevels and management courses at the postgraduate level [38].NPTEL is the largest online repository in the world of courses in
freehand sketching with computer aideddrafting in the freshman engineering courses will introduce artistic senses in human centered design ofproducts and their service. In this particular case, such a change in the curriculum can be brought forth byusing the following steps: 1. Recruiting specialists from arts faculty in engineering school; 2. Implementing a one semester course on Aesthetics in Engineering, in the freshman year; 3. Incorporating seminars and workshops on Aesthetics in Engineering in the final year just before graduation.Final RemarksAdding art and aesthetics in the undergraduate engineering curricula and programs, thereby transformingS.T.E.M. (Science, Technology, Engineering and Mathematics) to S.T.E.A.M., not only
subject matter retention in thelong term memory. In short, it was a successful teaching and learning experience.ACKNOWLEDGMENTS The ASEE and Manufacturing Division deserve a special note of appreciation fororganizing this forum and providing an opportunity to present this paper. The author would liketo thank Professional Development Division of WSU School of Business Administration fororganizing this special training program for UAW-GM/Delphi and inviting the author toparticipate in the process.REFERENCES1. Pabbati, P.V., Rathod, M.S., "A Study of Curriculum Models That Integrate Mathematics,Physical Sciences, Computers, and Communication in Technical Courses," ASEE AnnualConference Proceedings, June 1995.2. Latorre, R., Hatamura, Y
Page 13.958.3600 m2 facility at University of Washington. The objective was to create an integrated practice-based engineering curriculum that balances analytical and theoretical knowledge with physicalfacilities for product realization in an industrial-like setting. The LF model offers students intraditional engineering disciplines an alternative path to a degree that prepares them for careersin manufacturing, design and product realization.Although the LF model has been successfully implemented in several other universities, fullimplementation can be expensive. In 2002, Wayne State University was awarded an NSF grantto develop an adaptation of the LF model that would be less costly to implement. Our NSFproject involved the adaptation the
AC 2008-927: A SOFTWARE ENGINEERING TOOL FOR MANAGING COURSEPROJECTSJoseph Clifton, University of Wisconsin-Platteville Joseph M. Clifton is a Professor in the Department of Computer Science and Software Engineering at the University of Wisconsin – Platteville. He has a Ph.D. from Iowa State University. His interests include software engineering, real-time embedded systems, and software engineering education. Page 13.105.1© American Society for Engineering Education, 2008 A Software Engineering Tool for Managing Course ProjectsAbstractIn the fall of 2006 and spring of 2007, the students in our
development course has continued to evolve and is currentlycovering “Information Technology in Construction,” as it applies to construction, Page 14.758.3business and information management, Computer Aided Design (CAD) andPage 14.758.4Page 14.758.5References: 1. Tinker, A. & R. Burt (2002), “Greening the Construction Curriculum,” ASC Proceedings of the 39th Annual Conference, 113-118. 2. Ibid. 3. Ibid. 4. Dyer, T.D. & Y. Xing (2007), “Developing e-Learning Materials for Sustainable Construction Management,” Final Department of Civil Engineering Report TDYX001. 5. Mead, S. P. (2001), “Green building: Current status and
. She is currently pursuing her Master's degree in Business Administration at the University of Texas at Brownsville. Page 13.591.1© American Society for Engineering Education, 2008 Experiences with the Design and Development of a Novel Rapid Product Manufacturing Technique in the Batch Production of Miniature Industrial ComponentsAbstractThis paper presents a novel rapid product manufacturing technique that will reduce cost andcompress time for delivery of products produced in batches. The technique is composed of fourstages – digital prototype, computer aided engineering analysis, physical
AC 2008-639: WORLD-CLASS OUTCOMES ASSESSMENT ON A SHOESTRINGJoseph Clifton, University of Wisconsin-Platteville Joseph M. Clifton is a Professor in the Department of Computer Science and Software Engineering at the University of Wisconsin – Platteville. He has a Ph.D. from Iowa State University. His interests include software engineering, real-time embedded systems, and software engineering education.Rob Hasker, University of Wisconsin-Platteville Robert W. Hasker is a Professor in the Department of Computer Science and Software Engineering at the University of Wisconsin-Platteville. He has a Ph.D. from the University of Illinois at Urbana-Champaign. His interests include software
Microprocessors and Computers are inlarge part applications of electronic signal processing. It can be reasonably stated thatsignal processing is the common link between nearly all of the major technical courses ina contemporary Electrical or Electronic Engineering curriculum. Integrating Traditional Circuit Analysis and Circuit Analysis Emphasizing Signal Processing ConceptsAn example of integrating traditional circuit analysis and a signal processing approachcan be illustrated in the use of the voltage divider rule. A traditional circuit analysiscourse typically demonstrates how the voltage divider rule can be used to determine thevoltage at any point in a series configuration as illustrated in Figure 3
). Technical Programming (CETT 1431). • Computer Networking Technology Courses. Fundamentals of Networking (ITNW 1325). Installing and Administering Windows 2000 - Server (ITMC 1419). Implementing and Administering Microsoft Windows 2000 (ITMC 1443). Network Security (ITNW 2417). Networking with TCP/IP (ITNW 2321). Designing a Secure Microsoft Windows 2000 Network (ITMC 2433).The primary beneficiaries, students, are offered an exponentially superior treatment of the topicsin the courses above as instructors have the freedom to move away from the rudimentary chartsand diagrams presentation of the relevant topics into a “real world” handling of these advancedsubjects utilizing the convergence
Session 1448 Teaching State Variable Feedback to Technology Students Using MATLAB and SIMULINK Kathleen A.K. Ossman, Ph.D. University of Cincinnati I. IntroductionThis paper describes a course and laboratory in State Variable Feedback developed as a t echnicalelective for students in the Electrical and Computer Engineering Technology (ECET) program atthe University of Cincinnati. Students pursuing the EET degree are required to take courses inSignals and Systems and Feedback Controller Design. They learn to design lead
-Funded ”Supporting Collaboration in Engineering Education” that produced the research reported in this article. Over his 40 year career, Dr. Jonassen also taught at the Pennsylvania State University, University of Colorado, the University of Twente in the Netherlands, the University of North Carolina at Greensboro, and Syracuse University. He published 37 books and hundreds of articles, and papers on instructional design, computer-based learning, hypermedia, constructivism, cognitive tools, and problem solving. He has received dozens of awards and was posthumously inducted as a Fellow of the American Educational Research Association. The last 10 years of his life were devoted to the cognitive processes engaged by
curricularenhancement, students’ expectations, and technical skillsets development from students’perspectives.Keywords: Engineering Education; Quality Function Deployment; Curriculum Review; Designfor Manufacturability2 INTRODUCTIONThe proliferation of computers and information technology changes the landscape in every sectorranging from industrial domain to federal/non-federal companies to societal issues [1-3].Consequently, today’s engineers are facing continuous challenges due to the rapid changes in theproblem domain [4, 5]. Operational and production systems become dynamic, customer demandsare shifting, systems parameters are changing, and cyber-physical systems are introduced in manysystems. Together, it creates a new transformation of the industrial
Exploration Elective course during the third semester, acourse outside their discipline, to explore another field. The School of Engineering and Sciencesoffers various Exploration Elective courses based on four avenues: Bioengineering and ChemicalProcess, Innovation and Transformation, Computer Science and Information Technologies, andApplied Sciences. In this contribution, we present the design of the Exploration Elective courseand its implementation with large classes during the Covid-19 pandemic through synchronousdistance education. We surveyed 649 students after they completed the class. They were enrolledin eight different courses at all 25 campuses. We report an overview of students' satisfaction withtheir achievement of the course's
is Purdue University’s Robert A. Hoffer Distinguished Professor of Electrical Engi- neering Technology. He served as the Department Head of the Electrical and Computer Engineering Technology Department at Purdue University 2001-2010 and its Assistant Department Head in the 1990s. He has held leadership roles that include Tau Alpha Pi (President); ASEE ETLI; ASEE ETD; IEEE Press Editorial Board (Editor-in-Chief); FIE Steering Committee (Chair), ASEE ETC ET National Forum (co- founder and chair). He has been recognized with national, regional, university, college, and department awards for outstand- ing teaching and professional service, including: Fellow of ASEE, ASEE’s Fredrick J. Berger Award and James H
Institute of MIT & Harvard, Co-Chair of the MIT New Engineering Education Transformation, and Chair of the MIT Committee on Student Life. Professor Bathe obtained his Doctoral Degree from MIT working in the Departments of Mechanical, Chemical, and Biological Engineering before moving to the University of Munich to carry out his postdoctoral research. He returned to MIT in 2009 to join the faculty in the Department of Biological Engineering, where he runs an interdisciplinary research group focused on the targeted delivery of therapeutic nucleic acids and vaccines, phenotypic profiling of neuronal circuits involved in psychiatric disease, and engineering nucleic acid materials for highly parallel molecular computing
was there any accountability with respect to those missionstatements. They were out there as frameworks within which we operated, but we did not haveany means to show that we were actually working towards those goals. In essence, we were alldesigning our own courses and teaching exactly what we wanted to teach without any idea ofhow well we were doing collectively. Of course we did work together to design our curriculumand we frequently updated our curriculum based on the literature in our field, (e.g., ComputingCurriculum for Software Engineering, SWEBOK, etc.). But what we did not do was identify anyobjectives, or goals, for our department, nor any goals or outcomes for individual courses, andconsequently, we were unable to assess whether
year and succeeded in its goals of increasing students’ knowledge of theadditive manufacturing processes. Our results also show improvement in the students’ abilities toconduct individual research projects, work in an interdisciplinary environment, utilize computer-aided tools and laboratory facilities, and improving students’ communication and presentationskills. Some limitations of the REU program are explained in the paper.INTRODUCTION Missouri University of Science and Technology (Missouri S&T) hosts an AdditiveManufacturing Research Experience for Undergraduates program. Additive manufacturing,sometimes called direct digital manufacturing, is a class of manufacturing processes where bymaterial is added in a layer-by-layer
, computer-aided-design was overtaken bycomputer-aided-everything. Manufacturing educators were flooded with new demands -- teach a new course in CAD;teach a new course in CAM; teach a new course in robotics; teach a new course in (topic of thecurrent fad). Serious debates ensued on such minutia as which was the ‘best’ CAD system toteach. Curriculum design became somewhat extreme is spots. Curricula for degrees specificallyin CAD began to surface, especially at the associate level. Whole separate degree programs inoperational robotics proliferated, to the point where projected graduates would exceed the totalnumber of positions throughout the economy in this narrow specialty every year. The 1990’s brought us more in the way of methodologies than
salary, promotion and prestige. Valian illustratesthis point by citing a study that describes a computer simulation of promotion practices at ahypothetical corporation which had eight levels staffed at the bottom level by equal numbers ofmen and women [5]. A model-specified percentage of the staff would be promoted from onelevel to the next over a given period of time. The model imposed a small (1%) bias in favor ofpromoting men. After running the model through numerous iterations, the highest level in thecompany was 65% male [4, pp.3]. Based on these results, even small disadvantages can createhuge disparities over time.If this model of gender inequity is accepted, then initiatives to enhance equity must be similarlypervasive and systemic
hospitals.This program shall be implemented within Electronics Technology Departments of RiyadhColleges of Technology. Basic courses are common to the existing Industrial Electronics andControl program. These courses provide the student with basic knowledge and practical skillsin Basic Electricity, Electronics and Computers. The major emphasis in this major is onmedical instrumentation, where a selection of courses is offered to the student such as BasicMedical Knowledge, Biomedical Instrumentation, Biomedical Imaging, biomedicalLaboratory Instrumentation, Computers in Biomedical Instrumentation and BiomedicalInstrumentation Workshop.National Skill Standards and the Curriculum for Biomedical Technicians in SaudiArabia:Directorate General For Curricula
locations in an electrical system topography Page 10.69.1where undesired electromagnetic interference ( EMI ) may be inductively coupled from “Proceedings of the 2005 American Society of Engineering Education Annual Conference & Exposition Copyright @ 2005 , American Society for Engineering Education “60 Hz AC powered equipment to EMI sensitive electronic devices, particularly thedesktop computers , networked LAN stations, laptops, and other digital computerperipherals that are now so common in the industrial , laboratory and officeenvironments . Also, it should be mentioned at this point that EMI produced by many
overall1. Thus, as a whole, environmental engineer has room forimprovement with regards to diversity of student body.A growing body of research is recognizing the role that culture plays in the appealof careers to individuals. For example, gender roles and expectations, which varybetween cultures, can influence what women will view as appropriate careers.Studies have shown that women are represented in much higher numbers in Page 13.640.2engineering and computing sciences in Puerto Rico and China than within themainland US2-3. Thus, as cultural expectations of for females can affect careerchoice, it follows that the same would be true for males as well.Studies
outreach and curriculum development for K-12. Page 13.1186.1© American Society for Engineering Education, 2008 Technologies of NanotechnologyIntroductionA new course in the Department of Electrical and Computer Engineering Technology (ECET)which introduced our students to the emerging field of nanotechnology is discussed. As aninterdisciplinary field, nanotechnology provides an interesting challenge for instruction at theundergraduate level. This course focuses on the technologies of nanotechnologies, withparticular emphasis on the electrical components. It also covers the development ofnanoelectronics and the