Session 1532 Use of AutoCAD in An Electrical Engineering Curriculum Lisa Anneberg and Craig Hoff Ece Yaprak Departments of Electrical and Division of Engineering Technology Mechanical Engineering Wayne State University Lawrence Technological University Detroit, MI 48202 Southfield, MI 48075 (313) 577-8075 (810) 204-2539 FAX: (313) 577-1781 e-mail: anneberg@ltu.edu e-mail: yaprak@et1.eng.wayne.edu and hoff@ltu.eduThis paper was initiated at an Undergraduate Faculty
Page 24.1354.1 c American Society for Engineering Education, 2014 Utilizing Rep-Rap Machines in Engineering CurriculumIntroductionIn this ABET accredited manufacturing engineering program, the lead author has been teachingthe Rapid Prototyping and Reverse Engineering course for 8 years at Robert Morris University(RMU). The basic curriculum has been well set other than the new developments. The newdevelopments are added to the course content on an annual basis due to the dynamic nature ofboth fields. In addition, the laboratories have been equipped with multiple relevant technologiesincluding Stereolithography (SLA Viper), Fused Deposition Modeling (Dimension Elite), and3D Printing (Prometal RXD
objectives of this paper are to define quality engineering, explain the motivation behind theoriginal curriculum, compare the original curriculum with what we require today along with therationale we followed, and discuss potential future curriculum changes.DEFINITIONS OF QUALITY ENGINEERINGThere are at least three definitions of what it means to be a quality engineer: 1) The AmericanSociety for Quality’s (ASQ’s) Body of Knowledge for the Certified Quality Engineer (CQE) Exam;2) The use of the approach to designing quality into products and processes, referred to as Parameterand Tolerance Design, advocated by the Japanese engineer Genichi Taguchi; 3) The use of the termto refer to an engineering specialty practiced in large companies as part of the
taking thewider business and marketing perspective’12. It sounds so simple to say, but is it that easy?Marketing is much more than just organising events. Today’s approach needs to acknowledgecompetitor knowledge, innovative ideas, and satisfying the client through cutting-edgethinking. However, such thinking is not very common in many engineering businesses.Therefore, it is vital that today’s engineering curriculum should put a focus on this area.Quality and Project ManagementClosely linked with these marketing skills there is a need for enhanced quality and projectmanagement skills. Concepts such as Total Quality Management should progress from beingseen purely as "add-on" tools to becoming part of an ongoing process promoting
AC 2009-2103: CURRICULUM DEVELOPMENT ON A "SUSTAINABILITY"MAJOR USING QUALITY FUNCTION DEPLOYMENT (QFD) TECHNIQUESAnoop Desai, Georgia Southern University Dr. Anoop Desai received his BS degree in Production Engineering from the University of Bombay in 1999, and MS and Ph.D. degrees in Industrial Engineering from The University of Cincinnati in 2002 and 2006. His main research interests are in Product Lifecycle Management, Design for the Environment, Total Quality Management including tools for Six Sigma and Ergonomics.Jean-Claude Thomassian, State University of New York, Maritime College Dr. Jean-Claude Thomassian received his BS degrees in Electrical Engineering and Mechanical
introduction of these motorsports activities have been to stimulatethe ‘hands on’ approach to engineering education and to motivate the students. With the studentinterest shown in these activities, further automotive-related topics, experiences and courseshave been revived and/or introduced into the curriculum, as described below.IV.2. The ICAR Team and ‘Spin-Offs’The ICAR team’s purpose is to race – and for students to continue in this activity, it must be funfor them since they are not required to participate. However, in addition to the fun part, the raceteam has taken on responsibilities which provide several ‘spin-off’ benefits to the university,college, and ME department, including publicity, recruiting, and education. The publicitygenerated not
vignette video: “Names and history are almost non-existent inour engineering courses, and numbers and equations are actually what we deal with….” Thus,the participant focuses on using engineering for new innovations and acknowledges that ahistorical lens is not used in the engineering curriculum at the institution he attends. Participant 65 mentions his experiences with HC. He notes that in his senior design class,the “…instructor specified that the senior project leaders could not be White males. . .which wasprobably the biggest show of racism I have seen on campus.” Additionally, the participantdescribes that his “biggest personal obstacle has been being a father during undergraduate andgraduate work,” and “it can sometimes be frustrating
Paper ID #8773Promoting Undergraduate Research in the Electrical Engineering Curricu-lumProf. David Hoe, The University of Texas at Tyler David H. K. Hoe did his undergraduate and graduate studies at the University of Toronto. His professional experience includes positions at General Electric’s Research and Development Center as a Staff Engineer and at the University of Texas at Arlington as a Research Associate and Adjunct Professor. He assumed his present position as an Assistant Professor in the Electrical Engineering Department at the University of Texas at Tyler in August 2008. He teaches classes in Computer
Page 26.991.4of the standard course curriculum. One required course (MET 3300 Computer ProgrammingApplications in MET) requires students to learn a high level programming language to formulatesolutions to various engineering problems by coding a solution and running their software tovalidate the approach. Hence, our students are given basic instruction in fundamental computerprogramming as well as exposure to various specialized engineering software. The introductionof MS Excel examples in select courses, is used to further expand students understanding ofpossible analytical tools that can also be exploited to solve problems.Discussion: With the rise of the electronic computer during the mid-twentieth century,tremendous strides were made with
Paper ID #41055Implementing PackML in the Engineering and Technology CurriculumDr. Maged Mikhail, Purdue University Northwest Dr. Maged B.Mikhail, Assistant Professor, Mechatronics Engineering Technology Ph.D., Electrical Engineering, Tennessee State University, Nashville, Tennessee, August 2013. Dissertation title: aˆ CDevelopment of Integrated Decision Fusion Software System ©American Society for Engineering Education, 2024 Implementing PackML in the Engineering and Technology CurriculumAbstractPackML (Packaging Machine Language) is an automation standard widely
Session 1626 PARTICLE TECHNOLOGY IN THE ENGINEERING CURRICULUM AT NJIT Ian S. Fischer, Rajesh N. Dave, Jonathan Luke, Anthony D. Rosato and Robert Pfeffer New Jersey Institute of Technology Newark, NJ 07102Abstract This paper discusses the development of a three-course concentration in particle technology at NJIToffered across the engineering curriculum which addresses the urgent need for undergraduate and graduateeducation in this vital field of manufacturing. Funded by an NSF-CRCD grant, a major goal is to integrate recentparticle
Paper ID #5950Infusing Mechatronics and Robotics Concepts in Engineering CurriculumDr. Anca L. Sala, Baker College of Flint Dr. Anca L. Sala is Professor and Dean of Engineering and Computer Technology at Baker College of Flint. In addition to her administrative role she continues to be involved with development of new engineering curriculum, improving teaching and assessment of student learning, assessment of program outcomes and objectives, and ABET accreditation. She is an active member of ASEE, ASME, and OSA serving in various capacities
selling numerical methods textbooks are catalogs of techniques presentedgenerically (independent of any computational platform), followed by a bare-minimumseries of commands or computer code snippets that will implement the recipe justdescribed in a variety of different software packages or programming languages.Whether consciously or unconsciously, the text authors and course instructors aregrooming the students to be able to solve the types of problems one finds at the end of thechapter: small in scope, narrow in focus, again.The approach might be well suited for the 1960's and 1970's, when computing andprogramming became a core component of the undergraduate engineering curriculum,and when computing technology severely limited the size and
Paper ID #10701Integrated Capstone Design in Architectural Engineering CurriculumDr. Ahmed Cherif Megri, North Carolina A&T State University Dr. Ahmed Cherif Megri, Associate Professor of Architectural Engineering (AE). He teaches capstone, lighting, electrical, HVAC and energy design courses. He is the ABET Coordinator for the AE Program. His research areas include airflow modeling, zonal modeling, energy modeling, and artificial intelligence modeling using the support vector machine learning approach. Dr. Megri holds a PhD degree from INSA at Lyon (France) in the area of Thermal Engineering and ”Habilitation” (HDR
, and its synergy with the existing curriculum, this paper provides guidance for datascience curriculum development, implementation, and evaluation in civil engineering.IntroductionThe need to manage, analyze, and extract knowledge from data is becoming a necessity for everysector of society including industry, government, and academia. Engineers routinely encountermassive amounts of data, and new techniques and tools are emerging to create knowledge out ofthese data [1]. The compounded accessibility of data has considerably altered the civilengineering and the construction profession, and data analysis skill is recognized as a crucialexperience desired in engineering graduates [2-4]. Data science in civil engineering has a verywide scope. Data
toengineering ethics.At Texas A&M University, evidence of this interest in professional ethics culminated in thecreation of a new course in engineering ethics, as well as a project funded by the NationalScience Foundation to develop material for introducing ethical issues into required undergraduateengineering courses. Case Western Reserve University has created an Online Ethics Center forEngineering and Science. University of Virginia School of Engineering and Applied Scienceand the Darden School of Graduate Business Administration have created a web site that isdedicated to the dissemination of engineering ethics case studies and supporting resources forstudents and faculty. The Ethics Updates site of the University of San Diego is another
Session 2630 Freshman Calculus in an Integrated Engineering Curriculum David Barrow, Jack Bryant, Dante DeBlassie, Howard Seidel, Arlen Strader Texas A&M UniversityINTRODUCTION We are helping to develop, implement, and evaluate an integrated engineering curriculum thatemphasizes technology, active learning in the classroom, and teaming. We will describe our experiencesteaching calculus, during the past two academic years, to first year students in the integrated curriculum, whichalso includes courses in engineering, English, physics, and chemistry. This
Classification of Educational Goals. Handbook 1. The Cognitive Domain”, New York: McKay, 1956.3. Meriam, J. L., Engineering Mechanics - Dynamics, John Wiley and Sons, 1978.4. Cornwell, P. J., “Teaching Dynamics using Modern Tools”, Proceedings of the 1995 ASEE National Conference, Anaheim, CA, 1995.PHILLIP J. CORNWELLPhillip Cornwell is an Associate Professor of Mechanical Engineering at Rose-Hulman Institute of Technology.He received a B.S. in Mechanical Engineering from Texas Tech University in 1985 and a M.A. and Ph.D. fromPrinceton University in 1987 and 1989 respectively. His current interests include structural dynamics, finiteelement analysis, and the use of computers in the undergraduate engineering curriculum
effectively solves some educational problems, and that itshould be approached like all other media in terms of how it is used in the teaching environment.The new media are becoming an important component of education due largely to the readyavailability in the last few years of powerful, cheap desktop computers. Also, the “new student”is a member of the MTV generation, and is used to absorbing images and information muchfaster than the previous generation, and in a different way, in “information chunks.” It is wise totake advantage of new communication techniques made available by these new computing tools,particularly when we must adapt to meet the new learning styles evolving from use of thesemedia outside the classroom. Use the new media to fill
AC 2009-2092: DEVELOPMENT OF AN INTRODUCTORY COURSE ON“SUSTAINABILITY” AS PART OF THE CORE CURRICULUMAnoop Desai, Georgia Southern University Dr. Anoop Desai received his BS degree in Production Engineering from the University of Bombay in 1999, and MS and Ph.D. degrees in Industrial Engineering from The University of Cincinnati in 2002 and 2006. His main research interests are in Product Lifecycle Management, Design for the Environment, Total Quality Management including tools for Six Sigma and Ergonomics.Jean-Claude Thomassian, State University of New York, Maritime College Dr. Jean-Claude Thomassian received his BS degrees in Electrical Engineering and Mechanical Engineering from the
Paper ID #43184Asset-Based Approaches to Transformative Learning: Community and Culturein an Undergraduate Engineering Research Program at a Hispanic ServingInstitutionDr. Hilda Cecilia Contreras Aguirre, New Mexico State University Hilda Cecilia Contreras Aguirre, EdD is a STEM education researcher at New Mexico State University. She focuses her research on qualitative/mixed methods studies addressing minority and underrepresented student college performance and persistence through high-impact practices, particularly in STEM disciplines. Her main lines of inquiry examine best practices in mentoring and promotion of
simultaneous engineering,a focus which echoes long-standing themes in product development practices.1’lz Nevertheless, presentingthese ideas in undergraduate engineering education calls for a departure from the usual content and pedagogicalapproaches. The goal of this paper is to describe the development of a new course in concurrent engineering.Teaching concepts in product development benefits greatly from a hands-on approach. We have attempted toestablish this goal in three ways: by developing and using a number of laboratories and demonstrations, byinviting speakers from industry who can make classroom lessons concrete, and by using cases as the basis forclass discussion. This paper includes a discussion of the curriculum, of existing
AC 2007-2017: AN INTEGRATED APPROACH FOR ENGINEERINGMECHANICS AND DESIGNJames Klosky, U.S. Military AcademyDecker Hains, U.S. Military AcademyTimothy Johnson, Department of Civil and Mechanical Engineering, USMAJakob Bruhl, US Military Academy, Dept of Civil & Mechanical EngineeringJared B. Erickson, U.S. Military AcademyJohn Richards, D/CME, USMA Page 12.217.1© American Society for Engineering Education, 2007 An Integrated Approach for Engineering Mechanics and DesignAbstractAs part of a major curriculum update undertaken over the last three years, the United StatesMilitary Academy at West Point has implemented a new course sequence in statics
(“Engineering Student Engagement(ESEPs) were hired at the beginning of the 2016-17 Partners”, or “ESEPs”) were hired at the beginning of theacademic year to help maximize first-year student success 2016-17 academic year to help maximize first-year studentand to involve junior students in curriculum development success, engagement and motivation; and to increase Engfor first-year engineering courses. ESEPs support One students’ sense of belonging to an engineeringstudents by attending lectures, providing tutoring, community. The ESEP program was also initiated to involvedirecting students to support services, and hosting “online junior students in curriculum development for the four Engrooms
industry in the 1990s. Michael also has extensive experience as an instructor at New York University (five years), Howard University (four years), and California State University- San Francisco (ten years). American c Society for Engineering Education, 2021 Low Stakes Assessment Approach to Engineering Economy Instruction using revised Bloom TaxonomyDisclaimerThe author has had various affiliations within the American Society Of Civil Engineers and itscommittees, including work on the Civil Engineering Body of Knowledge Committee for thethird edition. Specifically, the technical outcomes and rationale for engineering economics. Theobservations
, “Product Development In The Curriculum: One Clean-Sheet Approach,” 1996 ASEE AnnualConference and Exposition, Washington, DC, United States, 1996.4. W. Birmingham, B. Allison, J. Dupree, “Entrepreneurship via Multidisciplinary Product Development,” 2007ASEE Annual Conference and Exposition, Honolulu, HI, United States, 2007.5. L. Carlson, J. Sullivan, “Exploring Entrepreneurship through Product Development: A Hands-On Approach,”2002 ASEE Annual Conference and Exposition, Montreal, Quebec, Canada, 2002.6. J. Porter, J. Morgan, W. Zhan, G. Wright, “Product and System Development: Creating A New Focus for anElectronics Engineering Technology Program,” 2012 ASEE Annual Conference and Exposition, San Antonio, TX,United States, 2012.7. J. Porter, J
c American Society for Engineering Education, 2013 SPARKPLUS : enabling collaboration and dialogue for learning and developing standards.AbstractProfessional learning is often informal, learnt on the job through engaging in practice withpeers. Hence, to prepare students for professional practice they require opportunities todevelop their ability to work in such collaborative /socially constructed learningenvironments.The authors have conducted several studies investigating the impact of collaborative learningactivities on the people that participate in them. We found thoughtful design is required,including scaffolding, to motivate desired approaches and attitudes to learning. The results ofthese studies informed
sustainability [4]; Carnegie Mellon University, University of Texas, EL Paso,Galveston College and CETYS University created a community service learning opportunity toprovide the students and faculty to gain experience in sustainable engineering development inMexico [5].At Grand Valley State University, there are limited technical elective courses about sustainableengineering and most with an emphasis on renewable energy. More courses about sustainableengineering are needed in Mechanical Engineering curriculum, as has been mentioned in alumnisurvey. A new course entitled “Sustainable Engineering Design” was designed to as a newaddition to the senior level technical electives for Mechanical Engineering students with acomprehensive review of sustainable
Paper ID #8135An Engineering and Educational Technology Team Approach to IntroducingNew Unsaturated Soils Mechanics Material into Introductory Undergradu-ate Geotechnical Engineering CoursesMr. Arthur Ornelas Jr., Arizona State University Arthur Omelas is currently a PhD student in Educational Technology in the Mary Lou Fulton Teachers College at Arizona State University. He spent fifteen years teaching in the public school and has been an adjunct instructor since 2006.Mr. John Sadauskas, Arizona State University John Sadauskas is a Ph.D. in Educational Technology with a concentration in Arts, Media and Engineering at
structures, K-12 education, earthquake hazard mitigation and many more. This program isexpected to serve as a national model for integrating structural dynamics into the undergraduatecivil engineering curriculum. The UCIST program is described in detail in Ref. 2.6. SummaryAn educational program has been developed at Washington University in St. Louis to familiarizeundergraduates with concepts in structural dynamics and with new approaches in structural con-trol. The students gain an understanding of structural dynamics and control through “hands-on”experiments. The experiments are designed to be performed using a bench-scale shake table. Thisequipment allows one to simulate an earthquake and study dynamic behavior of structures. Addi-tionally