Session 2548 Impact of Simulation Software in the Engineering Technology Curriculum Stanley J. Pisarski University of Pittsburgh at JohnstownAbstractThe University of Pittsburgh at Johnstown (UPJ) offers the Bachelor of Science degree in Civil,Electrical, and Mechanical Engineering Technology Many of the courses offered in UPJ’sEngineering Technology Program rely on laboratory experiments to supplement the lectures.Although there is no substitute for the experience that a laboratory environment provides,various software packages allow the user
laws, strategic planning, projectmanagement, quality, and supervisory skills. The School of Technology at this institutionencompasses seven diverse programs, including organizational leadership and supervision. TheMaster of Science in technology is, by design and necessity, cross disciplinary, to serve thediverse needs of the students in the school and in the field.This paper will review important issues in developing a master’s level degree in technology, andwill discuss the importance of considering the leadership and soft or conceptual skills areas forcurriculum. Furthermore, review of the federal statistics on job outlook for some higher levelpositions in engineering technology fields will be presented in support of the curriculum
Informing Science and Information Technology, 6:557–575, 2009. [7] J. May, J. York, , and D. Lending. Play ball: Bringing scrum into the classroom. Journal of Information Systems Education, 27(2):87–92, 2016. [8] J. H. Sharp and G. Lang. Agile in teaching and learning: Conceptual framework and research agenda. Journal of Information Systems Education, 29(2):45–52, 2018. [9] S. Robinson and M. Hall. Combining agile software development and service-learning: A case study in experiential is education. In SIGCSE ‘18: 49th ACM Technical Symposium on Computer Science Education, 2018.[10] O. Jimenez and D. Cliburn. Scrum in the undergraduate computer science curriculum. J. Comput. Sci., Coll. 31 (4):108–114, 2016.[11] M. Cohn
learning math as part of theirgame course is surprise and objection. ‘This is a game making class, not a math class’ is thegeneral sentiment. The objection is manifested at the time of the first pre-test, when studentssimply refuse to answer the test questions. In this section we present the different strategies andtechniques we used to embed math content into the game making curriculum. The challengeswere myriad and included introducing math into the curriculum, designing authentic integration,dealing with computer distraction, and translating games skills to standards-based content andultimately their application in a standards-based text context. Students in the class create threegames, a maze game, a shooting scroller game, and a platform game
Session 2037 Including Geomatics as an Essential Element of the Civil Engineering Curriculum Wayne Sarasua1, William J. Davis2 1 Department of Civil Engineering, Clemson University, Clemson, SC 2 Dept. of Civil & Environmental Engineering, The Citadel, Charleston, SCAbstractMany civil engineering programs at major Universities are struggling with how to accommodatesurveying in an already crowded undergraduate curriculum. Some schools continue to require anintroductory surveying class. Others have decided to abandon a surveying
code can also be supplied, which call the student’s function togenerate and plot the variation of outputs with variations in inputs.Classroom Applications The following are specific use cases to demonstrate how MATLAB Grader can be used tosupport student learning throughout their education starting with an introduction to programmingcourse, proceeding through the core curriculum, and ending with upper-level computational andelective courses. In the initial stage when students are learning programming logic, it is assumed thatstudents are unfamiliar with coding and need significant practice to gain fluency. For courseswithin the core curriculum, students should have already been exposed to MATLAB and the goalof MATLAB Grader is
Addressing the Future: Development of an Electrical Engineering Curriculum Stephen Williams, Jörg Mossbrucker, Glenn Wrate, Steven Reyer, and Owe Petersen Department of Electrical Engineering and Computer Science Milwaukee School of Engineering Milwaukee, WIAbstractThe Electrical Engineering program at the Milwaukee School of Engineering (MSOE) hasimplemented a major revision of its curriculum for the purpose of assuring course contentconsistent with both present technological changes and long-term technology trends. In addition,the curriculum places an
Session A New Cellular and Molecular Engineering Curriculum at Rice University Ka-Yiu San, Larry V. McIntire, Ann Saterbak Department of Bioengineering, Rice University Houston, Texas 77005AbstractThe tremendous advances in cellular and molecular biology over the last 25 years havefundamentally changed our understanding of living organisms. This new understanding at thelevel of cells and their array of associated molecules is having a tremendous impact on bothmedicine and technology. Appreciating the complexities of the cell and its inner workings
Paper ID #42591Use of Jupyter Notebooks to increase coding across the curriculum.Dr. Carl K Frederickson, University of Central Arkansas Dr. Frederickson has taught physics at UCA for 28 years. He is the current department chair and is leading the development of new engineering degree programs. ©American Society for Engineering Education, 2024 Use of Jupyter Notebooks to increase coding across the curriculum.AbstractThe engineering physics program at The University of Central Arkansas includes an electronicscourse for 2nd-year students. This course uses a project-based curriculum. Students
. Carrica is a professor with the Department of Mechanical and Industrial Engineering at The Uni- versity of Iowa. He teaches courses in the area of fluid mechanics, and is an active researcher in hydro- dynamics of surface and underwater vehicles, working on bubbly wakes, cavitation and maneuvering and seakeeping. His research team develops the computational naval hydrodynamics code REX. American c Society for Engineering Education, 2021 A Curriculum on Naval Science & Technology for a Midwestern UniversityIntroductionFrom a national defense perspective, there is strong demand for quality educational programsthat can prepare
are instances when one method may bepreferred over another for a particular type of assignment, or may also depend on the technologyavailable to the faculty.4 ConclusionEngineering education is catching up to industry in the usage of electronic documentation, wherethe classic bound, paper engineering logbook is increasingly being put aside in favor of electronicdocumentation. This trend is largely driven by changes in portable computing technology (andcost) and recent changes in patent law. At MSOE the electrical engineering faculty have embracedthis trend across the curriculum, and have seen mostly beneficial impacts.On the administrative side, faculty have appreciated the due date flexibility, timestamping of sub-missions, and easy
students, who typically have difficulty defining the common roles andcontributions of professional Industrial Engineers. The new first year curriculum was designedso that ISE students have a thorough introduction to Industrial Engineering concepts,tools/software, and analysis techniques.The revamped four course sequence makes use of common case studies throughout the year forcontinuity and practical content and students gain a vivid understanding of what an IndustrialEngineer does. The courses that have been revamped are Introduction to Industrial Engineering,Materials Processing, Computer Tools, and Freshman Seminar. Students are exposed to theconceptual areas of problem solving, integrated product and process design, work measurementmethods
Session 2793 Large Scale Destructive Testing in an Undergraduate Structural Engineering Curriculum Douglas C. Stahl, Richard A. DeVries Milwaukee School of EngineeringBackground and Project Goals Most engineering educators would dismiss as a crackpot one who claimed that computersshould not be used in the practice of structural engineering; most would agree that blind faith inthe computer is an equally indefensible position. Many of us are not quite sure how to respond,however, to the opinion held by some senior engineers that reliance on a slide
prepared to pursue further education in graduate school or medical school orbegin a career in the biotechnology industry.Bioengineering students follow the typical engineering curriculum during their freshman yearwith two semesters of calculus, two semesters of general chemistry, an introductoryprogramming course and two semesters of physics. The introduction of the students to thefundamentals of life sciences begins with organic chemistry and introductory biology in thesophomore year. Biochemistry and cell biology are critical for our program and are taken in thejunior year. Because of the increasing importance of computational science and mathematicalmodeling in bioengineering, students take two more semesters of mathematics and one semesterof
series of courses were developed to makethe new important research findings available to seniors and first year graduate studentsin engineering departments through specialized curricula. This course series involvedintegration of numerical simulations and experiments in the curriculum and are composedof four modules: Fundamentals of particle transport, dispersion, deposition, and removal. Computational modeling of particle transport, deposition, and removal. Experimental study of particle transport, deposition, and removal, and aerosol instrumentation. Industrial applications of particle transport, deposition, and removal.The materials for the course sequence were made available on the web and these fullsemester
the current process for finding properties inthermodynamics refers a student to a steam table, a better tool is needed. With the help of apowerful computational and organizational tool, more engineering analysis can be taught andlearned throughout the thermodynamics course. An added ability to properly organize theanalysis allows for better documentation and review at a later date. One of the most powerfultools with ready availability for most students is Microsoft Excel. Its unique capabilities like themacros in Visual Basic provide ample ability for calculations in engineering analysis. While asurvey of students showed that Excel is a preferred tool over others such as Matlab and Mathcad,many freshmen already maintain some knowledge of the
previous distributed simulation system was deployed ona Vax VMS platform, our real-time extensions of the Modular Modeling System needed to be converted to theUnix platform. The major portion of the conversion centered around the TCP/IP communication to thecoordination computer. Additional software for communication directly between a Spare computer and Baileymicroprocessor-based computer was also converted from a Concurrent Unix platform.CURRICULUM DEVELOPMENT Our 1995 ASEE paper8 emphasized the early curriculum development of the project, and this paperemphasizes the final development. Two new graduate level courses were developed and conducted. The “Power Plant Dynamics and Control” course (EE/NucE 597E) was conducted in the Fall
AC 2007-122: CONCEPTUAL FRAMEWORK OF HEALTHCARE SYSTEMSENGINEERING AND PILOT CURRICULUM DEVELOPMENTBin Wu, University of Missouri, ColumbiaCerry Klein, University of MissouriMichael Hosokawa, University of Missouri Associate Dean, Curriculum Professor, Family Medicine School of Midecine, University of Missouri-ColumbiaKaren Cox, University of Missouri Coordinator of Clinical Outcomes, MU Hospitals and Clinics, University of MissouriBeilei Zhang, University of Missouri Page 12.396.1© American Society for Engineering Education, 2007Conceptual Framework of Healthcare Systems Engineering And Pilot Curriculum
Session 1566 Integration of Simulation into the Undergraduate Fluid Mechanics Curriculum using FLUENT Rajesh Bhaskaran, Lance Collins Cornell University Ithaca, New YorkAbstractThe objective of this effort is to integrate simulation technology into the intermediate-levelfluid mechanics course in the undergraduate mechanical engineering curriculum at CornellUniversity. This is achieved using FLUENT, an industry-standard computational fluiddynamics (CFD) package. We seek to expose students to the intelligent use of CFD aswell as use FLUENT as a virtual lab
Engineering and Computing Systems at Arizona State University. She conducts research on tools and techniques that can be readily applied in real engineering learning environments to improve student learning and teaching. In this respect her two prominent research contributions are with: 1) artefact-inspired discovery–based pedagogy, i.e., learning activities where students’ exploration of STEM knowledge is self-directed and motivated by interactions or manipulations of artefacts; and 2) the development of faculty expertise in outcomes-based course de- sign through the use of the Instructional Module Development (IMOD) system, a self-guided web-based training tool.Dr. Shawn S Jordan, Arizona State University, Polytechnic
Session 1526 Structural Engineering Workshop: A Curriculum of Real and Virtual Experiments Douglas C. Stahl Richard A. DeVries Milwaukee School of EngineeringAbstractMost design procedures for structural components and systems are based on specific behaviorsprior to or including an ultimate failure mechanism. One of the critical steps in structuralengineering education is to help students understand these behaviors. While some of thebehaviors are rather obvious and can easily be described, many are not. To help
Session 3548 Integrating Solid Modeling Throughout a Mechanical Engineering Technology Curriculum David H. Myszka University of DaytonAbstractOver the past few years, the majority of companies involved in mechanical design have beenmigrating to a solid modeling system as the primary design platform. An broad study wasconducted to document the specific details of using a solid modeling system in an industrialsetting. As a result of this study, a comprehensive list of benefits was compiled. Also, the majorobstacles, which must be
, 1999,p13a6-20. IEEE, Piscataway, NJ6. Fell, Harriet; Proulx,Viera; Casey, John Writing across the computer science curriculum. SIGCSE Bulletin(Assoc. for Computing Machinery, Special Interest group on Computer Science Education.) 1996 p. 204-2097. Gunn, Craig James Approaching communication skill awareness ASEE Annual Conference Proceedings. V.21995 p.2467-24708. Harney, Mick Is Technical writing an engineering discipline? IEEE Transaction on Professional Communication,June 2000 V. 43, No. 29. Hendricks, Robert W.; Pappas, Eric Writing and communications-across-the-curriculum in the materials scienceand engineering departments at Virginal Tech Proceedings - 29th Annual Frontiers in Education Conference, v2,1995,p708-712.10. Mahan, John
Session 2532 Integration of a Circuit Board Milling Machine into an ECE Curriculum W. D. Jemison, W. R. Haller, W. A. Hornfeck Department of Electrical and Computer Engineering Lafayette College Easton, PA 18042AbstractThree years ago, the Department of Electrical and Computer Engineering at LafayetteCollege purchased a printed circuit board milling machine system and began integratingits use into the ECE curriculum. The system has been enthusiastically accepted by ourstudents and the faculty. This paper will describe our
AC 2011-892: COLLABORATIVE CURRICULUM DEVELOPMENT OFAN INDUSTRY-DRIVEN DIGITAL LOGIC DESIGNNasser Alaraje, Michigan Technological University Dr. Alaraje’s research interests focuses on processor architecture, System-on-Chip design methodology, Field-Programmable Logic Array (FPGA) architecture and design methodology, Engineering Technology Education, and hardware description language modeling. Dr. Alaraje is currently the Electrical Engineer- ing Technology program chair as well as a faculty member at Michigan Technological University, he taught and developed courses in Computer Engineering technology area at University of Cincinnati, and Michigan Technological University. Dr. Alaraje is a Fulbright scholar; he is a
AC 2011-281: DEVELOPING A ROBOTICS TECHNOLOGY CURRICU-LUM AT AN URBAN COMMUNITY COLLEGEMichael Kaye, Baltimore City Community College Michael Kaye is an Associate Professor of Mathematics and Engineering at Baltimore City Community College. He also serves as Co-Coordinator of the Engineering Transfer Program and is a Co-Principle Investigator on the Robotics Technology Curriculum grant.Yun Liu, Baltimore City Community College Yun Liu is currently an Associate Professor in Mathematics and Engineering at Baltimore City Com- munity College (BCCC). He holds a Doctor of Engineering degree from Morgan State University and two Master Degrees in Engineering and Computer Science from Morgan State University and University
1 Laboratory- and Project-Based Courses in the Engineering Technology Curriculum V. Genis, W. Rosen, R. Chiou, W. Danley, J. Milbrandt, G. Marekova, S. Racz, T. Kitchener, and B. LaVay Goodwin College of Professional Studies, Drexel University Philadelphia, PA 19104AbstractDrexel University’s Goodwin College of Professional Studies has offered a co-op-based AppliedEngineering Technology (AET) major since 2002. The program comprises three concentrations inElectrical, Mechanical, and Industrial Engineering
for student research in the design andoperation of intelligent and autonomous vehicles, project activities on this platform will enablestudents to gain valuable laboratory and project experiences. This can be accomplished throughthe inclusion of exercises on this platform in graduate and undergraduate courses offered as partof the electrical and computer engineering (ECE) curriculum. Graduate ECE courses, such asimage processing, neural networks, and embedded system design would be choices for projectactivities on this platform. Typical courses in the undergraduate ECE program are digital logicdesign and programming in C/C++/Python. The platform will promote student participationacross the ECE program in competitive design events for the next
Paper ID #18104Connected Mechanical Engineering Curriculum through a Fundamental Learn-ing Integration PlatformMr. Thomas A. Feldhausen, Kansas State University Thomas Feldhausen is an instructor for the Mechanical and Nuclear Engineering Department at Kansas State University. He received his M.S. in Mechanical Engineering from Kansas State University in May of 2017. As well as being an instructor, he works at Honeywell Federal Manufacturing and Technologies as a process engineer in Kansas City.Dr. Bruce R. Babin, Kansas State University, Department of Mechanical and Nuclear Engineering Dr. Babin is an instructor in the
An Integrated Systems Lab and Curriculum to Address IE Program Criteria Jessica O. Matson, Kenneth W. Hunter, Sr., and David W. Elizandro Tennessee Technological UniversityAbstractABET program criteria for industrial engineering require programs to demonstrate that“graduates have the ability to design, develop, implement, and improve integrated systems thatinclude people, materials, information, equipment, and energy” and to include “in-depthinstruction to accomplish the integration of systems using appropriate analytical, computational,and experimental practices.” Faculty in the industrial engineering program at TennesseeTechnological University have