the results from Viswanathan and Linsey[34], Christie, et al.[38] andMoe, et al.[16] for optimizing the prototyping process. These flowcharts can be applied to eachconcept.There are three independent flowcharts. The scaling flowchart encourages scaling only if it willsimplify the problem, a scaling law is known or can be estimated, and sufficient accuracy existsto predict the design requirements. This approach works well when there is an uncertainty in theextrapolation that can be predicted[37]. If there is a higher uncertainty in the scaling extrapolation,then the directive is to not use scaled prototypes, or to scale them only to a reduced extent.The second flowchart, subsystem isolation/integration, examines whether the designer should
discipline-focused initiativesfall short in terms of providing a more holistic experience of Engineering as a unified discipline.The main reason for this is that the inherent complexity involved in integrating multipledisciplines into a project over a relatively short period of time is a major challenge. Socolloquially speaking, oftentimes students don’t get to see the forest for the tree. As a resultmany students lose their curiosity to learn more about the engineering profession and decide tochoose a different career path.To address these concerns, an innovative teaching model based on a structured curriculum isproposed to not only introduce students to multiple engineering disciplines but also allow themto be part of a unified engineering
of computerscience and related disciplines, rather it is becoming an independent curriculum. Academicinstitutions are launching dedicated cybersecurity programs at the bachelor as well as graduatelevels.A crucial component of cybersecurity is biometrics, including face, fingerprint, iris, palm,handwriting [2-3]. Biometric information processing as well as their applications usually involvedigital images and videos. Digital image processing itself is a huge topic of academic studies andresearch, which is typically included in the electrical and computer engineering and computerscience curricula [4-5]. Unfortunately, digital image processing topics are not included in atypical cybersecurity curriculum. As a result, the graduates are completely
Aircraft Systems Engineering is introduced as anillustration of content and pedagogy addressing lifecycle topics. Based upon several years ofexperience of participation in these programs and in offering curriculum, the authors put forwardseven observations to stimulate further dialog and progress on this topic.IntroductionUndergraduate subjects on aircraft design have been taught for many years in aeronautical oraerospace engineering departments, often as a capstone subject. A key pedagogical objective isteaching tradeoffs among disciplinary needs to meet system-level requirements. The focus isusually on preliminary design or prototyping. Aircraft, however, are complex systemscomprising many subsystems, and usually represent only one element in an
Integration. Paper presented at the National Association of Industrial Technology (NAIT). 3. Lin, Johnathon, 2006. MastercamX Mill and Solids. Ann Arbor, MI: Scholar International Publishing Corp. 4. Walker, John, 1998. Machining Fundamentals. Tinley park, IL: Goodheart-Willcox Publishing Company.FARZIN HEIDARIDr. Heidari currently serves as an Associate Professor of Industrial Technology at Texas A&M University—Kingsville. Dr. Heidari has twenty years of teaching experience in CAD/CAM courses. He has numerouspublications related to this topic. He is currently serving as the Graduate Coordinator for the Industrial ManagementProgram. Proceedings of the 2009 ASEE Gulf-Southwest Annual Conference
and includedapplications to the life sciences. The mathematics faculty felt that a similar tailoring of coursescould be done for engineering students.Members of the mathematics undergraduate committee met with a group of engineering facultyto talk about the possibility of designing a sequence of calculus courses specifically forengineering students. In the initial engineering curriculum, Precalculus was included1. At theadvice of an outside reviewer familiar with ABET standards, the curriculum was modified duringthe fall 2006 semester. Precalculus was removed from the engineering curriculum and CalculusIII was added. Due to the number of required engineering credit hours in the curriculum and thenumber available for math and science credit
such as proceedings, journals and transactions. As part ofthe assessment protocol, each student was asked the schematic contribution of the referencedarticles.C. RA II and Ability (f): An understanding of the ethics and professional responsibilityHerker[18] states the teaching of ethics should not be a course. Ethics needs to be integrated tomany of the curriculum courses. Herker proposes ethical aspects in engineering should achievethe following results: (a) increase the sensitivity of ethics (b) increase in the knowledge ofrelevant standards or behaviors (c) ethical judgment improved and (d) improves the will powerethics.The course of RAII gives the students a space to develop these aspects. During the writingprocess, the student had to find
, B.R., Powell, K.G., Robertson, C.R., &Thoroddsen, S.T., Multi-Media Fluid Mechanics, Cambridge University Press, 2000.7. Gaddis, J.L., & Ochterbeck, J.M., “Foundations of Thermal-Fluid Sciences: An Introductory Sophomore Coursefor Mechanical Engineering Majors,” Heat Transfer Division, ASME, Vol. 361-3, 1998, p. 3-7.8. Incropera, F.P. & Fox, R. W., “Revising a Mechanical Engineering Curriculum: The Implementation Process,”Journal of Engineering Education, July 1996.9. Jensen, M.K., Smith, R.N., Kaminski, D.A., & Hirsa, A., “Towards an Integrated Thermal/Fluids Engineering,”Heat Transfer Division, ASME, Vol. 361-3, 1998, p. 9-16.10. Komerath, N.M., “Experimental Curriculum in Diagnostics and Control of Unsteady Flows,” Journal
Session 2559 Teaching and Curriculum Development of Microprocessor Classes Roman Stemprok University of North TexasAbstractThis paper addresses teaching and curriculum development for several microprocessorclasses in the Engineering Technology Department at the University of North Texas.Fundamentals of computer hardware and assembly language were presented inundergraduate and graduate courses with emphasis on a processor to control externaldevices. Students studied microprocessor structure, became proficient in assemblylanguage programming techniques, developed basic microprocessor interfacingtechniques
AC 2007-1075: REMOTE QUALITY CONTROL INTEGRATED WITHINTERNET-BASED ROBOTIC SYSTEMSYongjin Kwon, Drexel UniversityRichard Chiou, Drexel UniversityShreepud Rauniar, Drexel UniversityHoracio Sosa, Drexel University Page 12.1236.1© American Society for Engineering Education, 2007 Remote Quality Control Integrated with Internet-based Robotic SystemsAbstractThe current trends in industry include an integration of information and knowledge base networkwith a manufacturing system, which coined a new term, e-manufacturing. From the perspectiveof e-manufacturing, any production equipment and its control functions do not exist alone,instead becoming a part
including sustainability factors in design based courses are as high as 5 out of 6, ifwe segregate the outlier. In the case of Manufacturing Operations, opinions to includesustainability factors are uniform for each question of 5.2, 5.3, and 5.6 (Tables 1 and 2).Faculty /academia feedback on each of the above three groups establishes the importance ofincluding sustainability issues in manufacturing engineering courses.Question number 7 of Category 1was an open ended question that asked the participants toprovide suggestions to improve sustainability considerations in the course curriculum. Table 3lists suggestions included by 7 participants out of 30:Table 3: Suggestions to improve sustainability considerations in the Manufacturing Engineering
information modeling. In this paper, we present this holistic curriculumphilosophy and design for technology in our construction management undergraduate programincluding the preparation class, and three subsequent lab classes in estimating, scheduling, andbuilding information modeling. This paper includes a teaching and learning evaluation to assessthe success of this curriculum design, the transfer of learning across the curriculum, and the gapswe need to address in terms of emerging technology trends in data analytics and projectmanagement. We will discuss the strategies of preparing students to engage with technologyacross an undergraduate curriculum and define technology readiness for CM programs.IntroductionIn recent years there has been an
developed byLouisiana Tech University. The course consists of discussion sessions, hands on labs,cryptographic problems, film sessions, and a final cyber challenge each of which integrate thehistory, ethical issues, applications, and theory behind cyberspace, security, and cryptography.Developing a cyber curriculum that is truly interdisciplinary in focus – cutting across both thesciences and the liberal arts – demonstrates a national model for implementing similar programsat other institutions. This integrated approach to teaching strives to educate new scholars whounderstand not only the science, technology, engineering, and mathematics but also the political,social, historical, ethical, and legal aspects of this evolving discipline.Results of
importance of the 5Smodel. Additional engineering tools are also being planned for cross-curriculum integration inthe near future.Introduction The race is won in the pits! Teams from the National Association for Stock Car AutoRacing (NASCAR), Indy Racing League (IRL), and Championship Auto Racing Teams, Inc.(CART) use the principles of 5S to improve their performance in an environment where extrafractions of a second spent during pit stops can mean the difference between victory anddisappointing defeat. This is clearly demonstrated by the fact that for the racing speeds at this Page 10.747.1level of competition (approximately 200 miles per
. Dr. Ciprian Popoviciu, CCIE, is a Technical Leader at Cisco Systems with over nine years of experience in data and voice over IP communications technologies. As part of Cisco's Network Solution Integration Test Engineering (NSITE) organization, he currently focuses on the architecture, design and validation of large IPv6 network deployments in direct collaboration with Service Providers and Enterprises worldwide. Ciprian is a regular speaker or chair at conferences and industry events and contributes to various technology publications. He is an active contributor to the IETF standards, he is a Senior member of IEEE and member of several academic advisory boards. Ciprian is co-author of the
materials are developed by experienced teachers familiar with thebackgrounds of first- and second-year students. In addition, each of the institutions has its ownnetwork of peer institutions used for benchmarking, thus providing a multiplication factor fordissemination. One of the principal strategies is to foster integration of research and educationthrough the programs, projects and activities scheduled in the curriculum, that infuse educationwith the excitement of discovery and enrich research through the diversity of learningperspectives. AKNOWLEDGMENTS Page 22.1058.14This research was supported by the St
increasing theopportunities for feed back and feed forward of information between the two courses.7. Bibliography1. Strong, S. and Smith, R., Spatial Visualization: Fundamentals and Trends in Engineering Graphics, Journal of Industrial Technology, November 2001 to January 2002, 18(1), 1-62. Callister, W.D., Material Science and Engineering, an Introduction, 2002 John Wiley and Sons3. Dede, C., Salzman, M. and Loftin B., Science Space: Virtual Realities for Learning Complex and Abstract Scientific Concepts, Proceedings of VRAIS ’96, San Jose, CA, pp. 246-252.4. Kriz, R. D., Farkas, D., and Batra R. C., Integrating Simulation Research into Curriculum Modules on Mechanical Behavior of Materials: From the Atomistic to
AC 2008-1603: DEVELOPING A JOINT ENGINEERING/BUSINESS SCHOOLENTREPRENEURIAL CURRICULUMTimothy Faley, University f MichiganPeter Adriaens, University of Michigan Page 13.384.1© American Society for Engineering Education, 2008 An Approach to Building a Graduate-level Engineering and Business collaborative entrepreneurial curriculum American Society of Engineering Education AC2008-1603 re-submitted March 2008AbstractTechnology-based entrepreneurship, regardless of whether it takes place within a largeorganization or in a startup, requires a mixture of technological and business skills. Our aim indeveloping a joint graduate
university IT programs.3 Curriculum OverviewThe Web-Net Tech Certificate Program consists of five required courses and an optionalinternship. The courses are:CS 211 Computer Networks and Internetworks: A study of how computer networks andinternets operate, from the lowest level of data transmission and wiring to the highest level ofapplication software communication over the network infrastructure. Topics will includeexploration of networks and their management in the web environment, the OSI model, data andpacket transmission, topologies, hardware, client -server systems, internetworks, simulation andmanagement tools, e-commerce, and security. Prerequisite: C or C++ programming knowledge,or CS121 Computer Science I, or permission of the
specifications.At the same time, system integration responsibilities have become more prevalent, requiringinterface and control though means such as networking and the web. For example, the ObjectManagement Group’s (OMG) Common Object Request Broker Architecture (CORBA) is nowcommonly used to abstract communication across different processors in embedded systems ([1]as an example). In fact, most OMG meetings are now dominated by embedded systemsdevelopers in contrast with the information technology (IT) developers who dominated meetingsless than a decade ago. Embedded systems are also employing other IT strategies such as webservices and enterprise service bus architectures to handle their integration requirements ([2] asan example
, Engineering and Math (STEM) courses to solve real-world problems in the areas oftransportation, scheduling, manufacturing, logistics, and many others.With a Course, Curriculum and Lab Improvement (CCLI) grant project sponsored by theNational Science Foundation from 2009 - 2011, an updated Industrial Robotics and AutomatedManufacturing (IRAM) laboratory was developed. Utilizing this newly updated laboratory atMorgan State University (MSU), students are now able to use modern equipment within a set ofcourses specifically designed around the facility. These courses are in the areas of advancedmaterial handling systems, robotics and automation, computer-aided manufacturing, and flexiblemanufacturing systems. The integration of these courses with a hands
engineering curriculum.The solid modeling courses provide a unique opportunity to work with many of the corecomponents of the engineering design process much earlier in the curriculum. For instance, thedevelopment of a solid model of a complex part requires identifying criteria (such as necessarydimensions), brainstorming, generating ideas, developing a plan to produce the solid model in anefficient manner, and actually constructing the solid model. Additionally, there can be someiterations in the plan as the designer attempts to develop a creation path and runs into an obstacleand has to revise the plan.Unlike full-scale engineering design, Mathematics and Physics are not obstacles in the designprocess involved with the creation of 3D solid models
14.554.3The INSPIRES Curriculum StructureEach of the five modules in the INSPIRES Curriculum follows the same general outlineof sections to integrate the many different styles of content, including the web-basedmaterials and the hands-on activities. Students start with a pre-module Interest &Attitude Questionnaire and the Module Pre-Assessment to gauge both student interestand abilities in the particular topic specific to the module as well as in generalengineering prior to completing the module. The students then watch an introductoryvideo with a practicing engineer discussing a “real-world” design problem, itsconstraints, and the need for finding a solution to the problem. In the professionallyproduced video segment for the Engineering Energy
AC 2011-271: INTEGRATION OF NANO SCALE ELECTRONIC DEVICESINTO UNDERGRADUATE ELECTRICAL ENGINEERING CURRICULAHasina Huq, The University of Texas-Pan American Dr. Hasina F. Huq is an assistant professor at the University of Texas-Pan American, TX, U.S.A. Her research interests include electronics device characterization, VLSI system design, and wide bandgap (WBG) semiconductor. She received her M.S. in Electrical and Computer Engineering from Virginia Polytechnic Institute and State University, Blacksburg, in 2002 and Ph.D in Electrical and Computer Engineering from the University of Tennessee, Knoxville, in 2006. Dr. Huq has more than twenty papers published in peer reviewed international/national conferences and
to apply relevant theory, andencourage students to integrate the knowledge gained from all their courses. Most real-worldproblems and their solutions are not restricted to mono-disciplines, so students should learn todraw information from across disciplinary borders.Example project briefs: Develop an environmentally friendly, durable and low-cost roof material using locally available materials. Please consider the health and safety of the family, salt from ocean breeze and strong winds affecting families in the Mekong Delta of Vietnam. Design and develop a water filtration system that filters the river water for use by the villagers in their households in the Mekong Delta of Vietnam.Teaching approach and key
Session 2247 Delivery of a common microelectronics technology curriculum at several degree levels John Robertson, Lakshmi Munukutla and Richard Newman College of Technology and Applied Sciences Arizona State University East Mesa, Arizona, 85212AbstractIn an integrated circuit (IC) manufacturing company, the workforce has many skill andeducation levels but everyone has to work together and communicate effectively oncomplex technology issues. The microelectronics technology curriculum at ASU hastherefore taken on the same challenge - to present a
organizations say about what mechanical engineers need toknow? NAE, CFAT, ABET, and ASME all stress an integration of technical skills but say verylittle about specific technical content. NCEES’s FE exam specifications might be the onlydocument from a national engineering organization that approaches a standard for technicalengineering curriculum content but these specifications are not a credible source on whatengineers have to know. Looking at the leanness of the ABET program criteria for ME, ASME’snon-participation in the NSPE BOK, and ASME’s statements in Vision 2030, one couldcharacterize ASME’s stance as being that almost no particular technical content matters verymuch but that it is essential for engineers to be able to solve problems and
Paper ID #37388Work in Progress: Curricular Integration of Design and MaterialStandards in EngineeringDr. Breanna Michelle Weir Bailey, P.E., Texas A&M University, Kingsville I am a licensed Professional Engineer in the State of Texas. I have been employed at Texas A&M University-Kingsville since 2006. I currently serve as Chair of the Department of Civil and Architec- tural Engineering.Mohammad Motaher HossainDr. Larry Peel, Texas A&M University, Kingsville Larry Peel received an A.S. from Snow College, in engineering, a B.S. in mechanical engineering from Utah State University, an M.S. in engineering mechanics
mechanical engineers in the new era of data science and artificial intelligence, engineeringeducators have been urged to integrate these new technological advancements into existingcurriculum to adapt to the fast-changing needs from the future workplace. My effort primarily focuseson implementing an interdisciplinary approach to introduce the concepts and principles of datascience to the undergraduate students of mechanical engineering. I re-designed the class of Statisticsfor Engineering as Data Analytics for Engineering, in which the students can practice new tools usedin data analytics applications while they are still learning the basic statistical principles behind thesetechniques.In this class, the students are exposed to the real-world
increasingly difficult to facilitate due to the COVID-19 pandemic, is an integral component of any comprehensive engineering education program. Aproject-based approach using low-cost, pre-made kits offers practical experience in teamworkand collaboration, system design and implementation, problem solving and refinement ofinterdisciplinary skillsets through projects that can be completed at home or in the classroom.Robotics instruction and experimentation provides a means to achieve robust interdisciplinarylearning outcomes, facilitating long-term retention of engineering concepts by illustrating theconnections between theory and practice. This paper aims to establish the need for designintegration throughout the undergraduate curriculum, identify