. Miller is the Undergraduate Program Director and Clinical Associate Professor of Biomedical Engi- neering at Indiana University-Purdue University Indianapolis (IUPUI). After earning her BS in Materials Science and Engineering from Purdue University (West Lafayette), she earned her MS and PhD degrees at the University of Michigan (Ann Arbor). Her current roles include teaching, assisting in program assess- ment, student advising, and helping oversee undergraduate curriculum development and enhancement. c American Society for Engineering Education, 2019 Work in Progress: Vertical Integration of Engineering Design in an Undergraduate BME CurriculumAbstractRelevant and robust
Session 1230A Course in Statistical Analysis for Engineers in an Integrated Engineering Curriculum John Kinney Rose-Hulman Institute of Technology Rose-Hulman Institute of Technology is one of a number of institutions comprising theFoundation Coalition which is funded by the National Science Foundation. The Coalitionseeks to create model programs in engineering for national use which are tested at theCoalition institutions. With a freshman integrated program in place, a team at Rose-Hulman created asophomore program in engineering during the summer of 1995. The philosophy of
engineering and operations research and related areas toprovide new tools and skills for homeland security. Homeland security should be integral to industrial engineering design. Industrialengineers need to be as security conscious as they are cost and quality conscious, and includesecurity as part of continuous improvement strategies in cost and quality. The author recognizesthat many IE educators are already actively engaged in updating courses and materials to addresshomeland security in the curriculum. This paper is an attempt to encourage and perhapsmotivate others to get engaged and to stimulate further discussion on concepts and approaches toaddress this important revision to our program.References[1] ALDRICH, J.G., 1912
universities establishing a presence in aforeign country and exporting their own faculty to teach courses. Other institutions have acoordinated program of study that includes formal consideration of how the study abroadexperience at a foreign university advances the student’s progress towards a degree.The Milwaukee School of Engineering (MSOE) and the Fachhochschule Lübeck (FHL),University of Applied Sciences, Lübeck, Germany jointly developed and implemented a uniqueinternational student exchange program in the discipline of Electrical Engineering (EE). Theuniqueness of the program lies in the fact that it is fully integrated into the EE curriculum of bothinstitutions and constitutes a specific degree path at both institutions. Graduation is not
will produce the engineers without prolonging the time for graduation.Restructuring the engineering education system requires reviewing the philosophy of engineeringeducation, unifying the technical dimension of engineering, reviewing the status of engineeringprofession practices in the curriculum development, introducing the social dimension, andemploying a unifying approach to integrate these dimensions in one system. A dynamic self-assessment procedure is required to evaluate the working of the education system. Evaluationsubsystem must utilize an automated procedure to measure the performance of the educationsystem, on a systematic basis, to correct any deviations from the required goals of the system.This paper discusses the technical
AC 2009-1825: INCORPORATING AN ENTREPRENEURIAL MINDSET INFRESHMAN ENGINEERING STUDENTSSridhar Condoor, Saint Louis UniversityMark McQuilling, Saint Louis University Page 14.716.1© American Society for Engineering Education, 2009An engineer equipped with an entrepreneurial mindset contributes to business success, makeshis/her company more competitive, and is generally more aware of business and professionalopportunity. To instill an entrepreneurial mindset in our engineering programs (aerospace,biomedical, electrical, and mechanical engineering), we started exposing our students from veryearly i.e., the first semester of the freshmen year. We developed and deployed a module
prepare engineers to fulfill their cultural and civicresponsibilities. For an engineering educator, it is vital to inculcate in the engineering students,the importance of studying humanities that can open up their minds to the use of creative ideasfrom great minds outside of science. Humanists claim that the state-of-the-art scientificknowledge techniques that engineers learn in their college curriculum have a limited shelf life. Ifthey master the humanities, it can provide tools for extending that shelf life. One of the mostimportant aspects of engineering is effective communication, both verbal and written.Humanities study can strengthen the ability of engineers to work and communicate with others.Importance of HumanitiesA number of engineering
six groups of4 (approximately) members each. The instructor meets with each team individually and discusses theirquestions and explains to them how specific questions can be clarified and improved. Although, theentire activity from start to finish is carefully monitored by the instructor with continuous feedbackand grading of team-performance, independent team work and individual responsibility are alsoemphasized. This activity can be replicated in other CGT courses as well other disciplines. The resultssuggest that it can be an effective means to strengthen CG course pedagogy. This approach willfacilitate assessment of tactile learning methods in CGT course curriculum and help with a continuous‘Course Improvement Plan’. Ultimately this
acquire in each area, and an ability to integrate innew topics that keeps pace with advances of the technology that are relevant to the needs of localand regional industries. One such area of the curriculum is CAD/CAM and CNC. In this paper wewill review some important advances in technology in this area that are being integrated into amanufacturing engineering curriculum. These include CAM part programming using sophisticatedtool path generation capabilities that promote high speed and high efficiency machining,programming multi-axis machining operations, the use of various measurement techniques toquantify variation and efficiency of CNC operations, and the use of advanced simulation andverification techniques to develop insight into and
Paper ID #20913Instilling Entrepreneurial Mindset by Vertical Integration of Engineering ProjectsShankar Ramakrishnan, Arizona State University, Polytechnic campus Dr. Shankar Ramakrishnan received his PhD in Electrical Engineering from Arizona State University. He is currently part of the engineering education team in the Ira A. Fulton Schools of Engineering at Arizona State University. Currently he designs the curriculum for the freshman engineering program at the Polytechnic campus of the Arizona State University. He also designs and teaches engineering design courses in the first and sophomore years at ASU. His interests
applicationdevelopments of industrial robots. Robotics Interfacing Engineering is taught as a 300 levelcourse for junior undergraduate students in ITMT program. This course teaches electronic,digital, and mechanical interfacing of robots in industrial manufacturing cells. Topics includeopen and closed loop control systems, various sensing devices, tactile sensing, vision systems,and motor controls. The challenge in teaching this course is the integration of knowledge andskills from mechanical engineering, electronic engineering, and computer programming forstudents in manufacturing technology program.In the Robotics Interfacing Engineering class, weekly labs are set up which account for the sameamount of time as the lectures. The outcome of this curriculum is to
readily recognize and apply theirengineering background to solve unstructured problems, both locally and beyond US borders.Beginning in September 2003 we embarked on an innovative approach to curriculum reform thatcontains four overarching objectives, namely (1) the integration of concepts across thecurriculum; (2) teaching students to synthesize different concepts to solve unstructuredproblems; (3) providing problem solving methods and strategies within a societal framework thatallows for their application within a local as well as a global context; and (4) creating a portabledevelopment methodology that can be readily adapted to other engineering disciplines. Thispaper reports on the development and implementation of a new course IE 1091
entrepreneurship.1,2,3 In thissame spirit of “doing” versus “lecturing”, the Electronics and Telecommunications (EET/TET)Programs at Texas A&M University have been developing an emphasis in electronics productdesign. To this end, the curriculum has been augmented to include topics such as electronicsmanufacturing, system integration, innovation, project management, and entrepreneurship. Aninitiative to team engineering technology students with business students who understandmarketing and small business plan development has also gained substantial momentum over thepast three years.4 Finally, all students are required to participate in a capstone design sequencewhere they work in teams to develop the concept for a product and implement a fully
time in their careers.THE MOTIVATION TO INTEGRATE COURSES The current mechanical engineering program provides a strong foundation infundamentals. Each year all mechanical engineering majors must take the Fundamentals ofEngineering (FE) exam. The 94% pass rate for the April 2002 FE exam is a strong indicator ofthe strength of the mechanical engineering program at USMA. The mechanical engineeringprogram ranks 5th among schools without an engineering doctorate program in the 2003 edition ofU.S. News and World Report rankings.6 Despite this success, improvements to the program maybe realized by integrating parts of the curriculum. The details of how courses could be integrated will be explained later in this paper
engineering course. International Journal of Technology and Design Education, 2003. 13(3): p. 273-288.21. Tamir, P., Considering the role of invitations to inquiry in scienceteaching and in teacher education. Journal of Science Teacher Education, 1990. 1(3): p. 41-45.22. Gregson, P. and T.A. Little, Using contests to teach design to EE juniors. Education, IEEE Transactions on, 1999. 42(3): p. 229-232.23. Clayton, G., N. Radlinksa, and T. Wojcik. Integrating design education across the curriculum using impromptu design projects. in ASEE Mid-Atlanta Section Conference, Villanova, PA. 2010.24. Clayton, G., Impromptu Design Exercises in an Introductory Mechanical Engineering Course American Society for Engineering Education
in Electrical and ComputerEngineeringAbstractThis paper describes an NSF-sponsored department level curriculum reform project in theElectrical and Computer Engineering Department at the University of Utah. The project focuseson developing system-level design projects (mostly labs, but a few software-only projects) thatintegrate ideas within a class, between classes, and in some cases between disciplines. Writtenand oral communication is also stressed throughout this program. Materials are available for useby other educators via the PI (Furse) or the website1.IntroductionThis paper reports on a department level curriculum reform project to integrate system-leveldesign projects throughout an otherwise relatively traditional undergraduate
, New York University Tandon School of Engineering Jack Bringardner is the Assistant Dean for Academic and Curricular Affairs at NYU Tandon School of Engineering. He is also an Assistant Professor in the General Engineering Department and Civil Engineer- ing Department where he teaches the First-Year Engineering Program course Introduction to Engineering and Design. He is the Director of Vertically Integrated Projects at NYU. His Vertically Integrated Projects course is on Smart Cities Technology with a focus on transportation. His primary focus is developing curriculum, mentoring students, and engineering education research, particularly for project-based cur- riculum, first-year engineering, and transportation. He
Session 1280 Integrating Design, Analysis, and Problem Solving in an Introduction to Engineering Curriculum for High School Students Ann McKenna and Alice Agogino Graduate Group in Engineering, Science and Mathematics Education/ Department of Mechanical Engineering, University of California at Berkeley, CA 94720AbstractThe current paper describes an Introduction to Engineering class that was taught to a group ofhigh school students in the summer of 1997. The class was offered through an outreach programat the University of California at Berkeley called the Academic Talent Development Program(ATDP
Session 2370 The Computing and Composition as an Integrated Subject in the Secondary School Curriculum Fadi P. Deek, Robert S. Friedman, and Howard Kimmel College of Computing Sciences New Jersey Institute of Technology Newark, NJ USA 973.596.2997 (O) 973.596.5777 (Fax) Email: fadi.deek@njit.eduAbstractMany students enter college lacking basic problem solving and communication skills.The situation is even more exacerbated for students from urban
, 2023Celesse MylesVera SebulskyKaushik JayaramMarina VanceGregory Whiting © American Society for Engineering Education, 2023 Meeting Schools Where They Are: Integrating Engineering Outreach Curriculum in the Classroom Without Forcing an AgendaAbstractMany middle school students lack an understanding of what engineering is, leading to an inabilityto see themselves in the field and a decreased likelihood that they will pursue engineering. This isespecially prevalent in families and communities where children may not have engineering rolemodels. In the US, such communities are more likely to include students from underrepresentedgroups in STEM. Providing early engineering exposure to
classroom teacher in all grades. Her main focus has been in the intermediate grades. Presently, she “loops” with her class from 4th to 5th grade, thus keeping them for two years. Deborah has experience writing curriculum using the Backwards Design Process and has worked with the state to create, revise and edit the math questions used on the statewide test for fifth grade. Page 12.489.2© American Society for Engineering Education, 2007 Developing and Aligning Engineering Elements in an Elementary School’s Integrated Engineering CurriculumBackgroundDouglas L. Jamerson, Jr. Elementary School was
Session 1275 IMPaCT - A Pilot Program Creating an Integrated Mathematics, Physics and Communication Track in the Engineering Curriculum M. Lewis Temares, R. Narasimhan and Samuel S. Lee College of Engineering, University of MiamiIntroduction Like many other engineering institutions in this country, the College of Engineering at the University ofMiami has encountered problems with student retention, particularly for the freshmen class. During theirtransition from high school to college, freshmen students often have difficulty adjusting to
meet the challenge of integrating STEM disciplines in a manner that supports teach- ing and learning across multiple disciplines. More recently, her research has focused on using literacy to support scientific inquiry, engineering design, and STEM integration.Mrs. Elizabeth Gajdzik, Purdue University, West Lafayette (College of Engineering) Elizabeth Gajdzik is the Assistant Director of the INSPIRE Research Institute for Pre-College Engineering in the School of Engineering Education at Purdue University. She received both her B.S. in Interdisci- plinary Studies with a specialization in mathematics and M.S.Ed. in Curriculum and Instruction with an emphasis in mathematics education from Baylor University. Prior to her
funding agencies have investedextensively in projects promoting various forms of experiential learning. Noteworthy amongthese was an NSF grant to the Manufacturing Engineering Education Partnership, whichdeveloped an integrated practice-based engineering curriculum called the Learning Factory (LF).The LF balances analytical and theoretical knowledge with physical facilities for productrealization in an industrial-like setting. It stresses hands-on engineering activities and industrycollaboration, and offers students an alternative path to a degree that directly prepares them forcareers in manufacturing4-5. A drawback of the LF model however is its high implementationcost, which limits its transferability.2. Development of the MILL Model
Engineering (2003- 2007), Director of the graduate program in Industrial Engineering ( August 2012 – August 2014), and she is currently the IE Department Head. c American Society for Engineering Education, 2016 Integrated Curriculum Design for an Industrial Engineering Program in Latin AmericaAbstractThe Industrial Engineering Department at Universidad Icesi led a systematic review of theIndustrial Engineering (IE) undergraduate program curriculum. Universidad Icesi at Cali,Colombia is a private institution recognized among the best universities in the country. Thecurriculum review and design was conceived as part of the IE undergraduate program’scontinuous improvement process and
originalideas and analytical skills for the solution of concrete problems in the areas of manufacturingsystems, programming, logistics and others. As an attractive educational tool, roboticscontributes to the increase in students’ interest for Science, Technology, Engineering and Math(STEM) concepts.Through this Course, Curriculum and Lab Improvement (CCLI) grant project sponsored by theNational Science Foundation an updated Industrial Robotics and Automated Manufacturing(IRAM) Laboratory will be developed at Morgan State University. The IRAM Laboratory willprovide an improvement in the current facility and combine the integration of additional courseswith a hands-on laboratory approach into the Industrial engineering undergraduate curriculum.These
Paper ID #10694C-STEM Curriculum for Integrated Computing and STEM Education (Cur-riculum Exchange)Prof. Harry H. Cheng, University of California, Davis Harry H. Cheng is a Professor in the Department of Mechanical and Aerospace Engineering, Graduate Group in Computer Science, and Graduate Group in Education at the University of California, Davis, where he is also the Director of the UC Davis Center for Integrated Computing and STEM Education (http://c-stem.ucdavis.edu) and Director of the Integration Engineering Laboratory. His current research includes developing computing and robotics technologies and integrate them into
AC 2008-1887: INTEGRATED CURRICULUM AND LABORATORYDEVELOPMENT OF AN UNDERGRADUATE TELECOMMUNICATIONS ANDCOMPUTER NETWORKING PROGRAMShuju Wu, Southeast Missouri State University Shuju Wu (swu@semo.edu) is an Assistant Professor in the Department of Industrial and Engineering Technology at Southeast Missouri State University. She received her Ph.D. degree from the University of Pittsburgh. Her current teaching and research interests include telecommunications and computer networking, IP and overlay multicast, system design and analysis, and wireless ad hoc networks.Ragu Athinarayanan, Southeast Missouri State University Ragu Athinarayanan received his Masters and PhD degree in Electrical Engineering
fabricated partsCurriculum Development: On-ground, Online, HybridCurriculum development in the context of AM education is a multifaceted process that hasadapted dynamically to the diverse learning needs of students. A well-developed curriculum is amust for a successful delivery of AM content modules [20]. In the traditional on-ground setting,educational institutions have tailored their curricula to provide comprehensive AM instruction,integrating theoretical foundations with practical hands-on experiences in physical laboratorysettings [21]. This approach ensures the acquisition of fundamental knowledge and thedevelopment of essential skills. In contrast, online education in AM has flourished in recentyears, catering to a global audience seeking
Paper ID #12517Using an Experience Design Approach to Curriculum CreationDr. Mihaela Vorvoreanu, Purdue University, West LafayetteDr. Patrick E. Connolly, Purdue University, West Lafayette Dr. Patrick Connolly is a professor and interim department head of the Department of Computer Graph- ics Technology in the College of Technology at Purdue University. He has extensive experience in the aerospace design and CAD/CAE software industries, and has been serving in higher education for almost twenty years. Dr. Connolly has a BS degree in Design and Graphics Technology and an MS in Com- puter Integrated Manufacturing from Brigham