Session 1357 Engineering Problem Solving in Industrial Engineering Curriculum Reform Sigurdur Olafsson, Veronica Dark, John Jackman, Frank Peters, and Sarah Ryan Iowa State UniversityAbstractProblem solving is a major focus of the engineering profession, and upon graduation newengineers are faced with increasingly complex problems. Yet, existing engineering educationpractices often fall short in preparing students to tackle complex engineering problems that maybe ambiguous, open-ended and ill-structured. In this paper, we describe a newly developedlearning
. Page 13.1168.1© American Society for Engineering Education, 2008 Teaching Multi-Body Dynamics in an Undergraduate Curriculum: An Intuitive and Explicit Formalism Based on Parasitic ElementsAbstractTypical undergraduate mechanical engineering curricula in North America do not include acourse in multi-body dynamics. A rigid body dynamics course covering single-body kinetics isusually completed in early semesters, and often the material is not revisited before graduation.Students typically graduate without a sense of how to simulate the forward dynamics of evensimple multi-body systems such as slider-crank or four-bar mechanisms. Engineers should havesome increased depth of understanding in this
teaching goDr. Lawrence Angrave, University of Illinois, Urbana-Champaign Dr. Lawrence Angrave is an award-winning computer science Teaching Professor at the University of Illinois Urbana-Champaign. He creates and researches new opportunities for accessible and inclusive equitable education. ©American Society for Engineering Education, 2023 The Inclusive Glossary: An Embedded, Interactive Approach to Accessible and Inclusive Learning Abstract To assist students in engineering and related STEM disciplines, we report on themotivation, design, implementation, and evaluation of the Inclusive Glossary, a novelembedded interactive educational tool. The Glossary
Paper ID #16226Computational Pedagogy: Fostering a New Method of TeachingProf. Osman Yasar, The College at Brockport - SUNY Osman Yasar is an endowed professor and director of the CMST Institute at The College at Brockport, SUNY. He established the first undergraduate degree program in computational science in the United States and developed a computational pedagogical content knowledge (CPACK) framework for teacher professional development. His research interests include engineering and science education, computa- tional pedagogy, computational theory of mind, fluid and particle dynamics, engine ignition modeling
2006-1544: VECTOR: A HANDS-ON APPROACH THAT MAKESELECTROMAGNETICS RELEVANT TO STUDENTSCharles Bunting, Oklahoma State University Charles Bunting received his Ph.D. from Virginia Tech in 1994. His interests are in Electromagnetic characterization and application of reverberation chambers, computational electromagnetics, and analysis of optical and microwave structures using numerical methods. Currently he teaches at both the undergraduate and graduate level, developing a hands-on approach to teaching electromagnetics.Alan Cheville, Oklahoma State UniversityJames West, Oklahoma State University James West, Professor of electrical engineering, received his Ph.D. from the University of Kansas
Session 1221 A Pragmatic Approach to Development of an Undergraduate Construction Curriculum in Trenchless Technology Virendra K. Varma, Mohammad Najafi Missouri Western State CollegeABSTRACT: Although trenchless technology has become an economically viable alternative to open-cutconstruction, the schools of civil and construction engineering are generally lagging behind in providinginstruction on trenchless technology to our undergraduate students. There is a lack of knowledge about the roleof trenchless technology in
Paper ID #5715Alternative Approaches to Incorporate Design for Safety into ConstructionEngineering CurriculaDr. Robert G. Batson P.E., University of Alabama Robert G. Batson, Ph.D., P.E., is a professor of construction engineering in the Department of Civil, Con- struction, and Environmental Engineering at The University of Alabama. He holds a Ph.D. in Applied Mathematics and an M.S. in Industrial Engineering, both received from The University of Alabama in 1979. He teaches required undergraduate courses in construction engineering, safety engineering, engi- neering management, and applied statistics, and graduate courses
Paper ID #7659Teaching Undergraduate Introductory Course to Mechatronics in the Me-chanical Engineering Curriculum Using ArduinoDr. Jose Antonio Riofrio, Western New England University Jos´e A Riofr´ıo received his B.S. in Engineering Physics from Elizabethtown College in 2003, and his M.S. and Ph.D. in Mechanical Engineering from Vanderbilt University in 2005 and 2008, respectively. At Vanderbilt, Jos´e focused his research in controls, mechatronics and mechanical design. After obtaining his Ph.D., Jos´e worked in the Fluid Power industry designing servo-pneumatic control systems for various motion-control applications
idea that women and students of color favor socially relevantengineering content and contexts [32], [33]. However, such an approach has been met withresistance due to the overreliance on technical subject matter in the engineering curriculum [32],[34], [35]. Many engineering faculty, but certainly not all, resist curricular changes to due to“competing tendencies” rooted within the technical/social dualism [36, p. 238].MethodologyThis paper uses a quantitative approach to analyze engineering climate survey responses amonggender and sexual minority students. The survey was conducted in spring 2018 at a Mid-Atlanticuniversity as one component of a National Science Foundation grant that was awarded to theCivil and Environmental Engineering
American Society for Engineering Education, 2016Restructuring Digital Design Courses in Electrical and Computer Engineering Technology Programs, Preparing the Engineer of 2020AbstractAs the complexity of microelectronic systems is steadily increasing, universities must updatetheir curriculum to cope with the increased demands of the industry. New technologies and toolsare frequently introduced into the engineering workplace, and educational programs must find away to integrate many of these into their offerings. In the areas of digital system design, theindustrial use of programmable logic devices (FPGA, CPLD), associated EDA tools and HDLlanguages is increasing rapidly and consequently the demand for highly qualified engineers withthis
meeting the requirementsof accreditation bodies within the stipulated time were challenging for both students andinstructors. This article explains how these challenges in engineering education and delivery ofskills were effectively addressed with the “Learning by Doing” paradigm while keeping in pacewith advanced manufacturing technologies such as 3D printing.2. Literature ReviewRecent interest in improving pedagogical approaches in science, technology, engineering, andmathematics (STEM) fields has stimulated research in many universities. Several educationalmethodologies are reviewed in the context of manufacturing and through the lens ofsustainability. It is found that there is a need to identify and understand the STEM educationalchallenges
active learning. We believe that engineering education needs fundamental modifications and new approaches to match the needs of the 21st Century. In previous papers and presentations, we have discussed classes and curricula that are based on the Deweyan pragmatic philosophy and argued that they have tremendous potential for creating critical thinkers and lifelong learners and therefore more adaptable problem solvers than the current crop of engineering-‐education graduates. Authors have also identified the studio model as the best course structure for accommodating Deweyan philosophy. However, a shift to that model requires a comprehensive review
Global Engineering Competencies and CasesWhether working on multi-national project teams, navigating geographically dispersed supplychains, or engaging customers and clients abroad, engineering graduates encounter worlds ofprofessional practice that are increasingly global in character. This new reality poses challengesfor engineering educators and employers, who are faced with the formidable task of preparingengineers to be more effective in diverse global contexts. In response, more global learningopportunities are being made available to engineering students, as reflected in gradual yet steadyincreases in the number of global engineering programs and participating students.1 Manycompanies are also offering professional development
an engineering technology department’s industry advisory council at aUniversity in Louisiana approached the department with a need to develop a new course onproject management. The university administration showed support to develop a new course, andit was offered for the first time in less than one year (Fall 2015). According to long termprojections for industrial production managers, the need for managers in industrial situations is2170/year until 2022. In the Louisiana Workforce Commission’s Five-Star Jobs listing, there areapproximately 300 advertisements for supervisors, inspectors, controller, and industrialtechnician advertisements7 (accessed on 7/14/2015). With this new course, it is expected thatgraduates with an Industrial
Walter P. Murphy Fellowship, and the EECS department Best Dissertation Award for his Ph.D. dissertation titled ”Compiler and Architectural Approaches to Software Protection and Security.” Page 25.842.1 c American Society for Engineering Education, 2012 Introducing Graphics Processing from a Systems Perspective: A Hardware / Software ApproachAbstractTypical courses in computer graphics focus mainly on the core graphics rendering algorithms andsoftware interfaces - hardware and system-level issues are addressed, if at all, through classroomlectures of industrial
well-versed in technical matters, concerns havebeen expressed by some in the engineering education community that students are not gaining anappreciation for non-technical topics that would improve their responsiveness as engineers with abroader view of the world and the role of their profession in that world. When faced with tryingto create space in their undergraduate curriculum for new topics, engineering educators often useABET accreditation requirements as a roadblock. But careful reading and consideration of theABET criteria indicate that the criteria are not actually a roadblock to such changes for mostschools.This paper describes the approach taken by the Mechanical Engineering program in one publicresearch university to open credits
of these items on theenvironment. To those of us active in the engineering profession, this is not a new concept. Partand parcel of the design process is an analysis of overall product cost, which normally involveswaste disposal and/or reclamation. This perhaps more traditional approach to the environmentalimpact of an engineering design is being supplanted by an approach that is less dependent oncosts -- green engineering. Green engineering, in short, involves analyzing the environmentalimpact of the designed product throughout the product/process life. Not only are the rawmaterials analyzed, but also the impact of the product’s use, any by-products or waste streamsgenerated, and the disposal/reclamation cost. A separate branch of ‘green
largerconsumers of new products11. For multinational companies the investment into developingcountries and markets represents their opportunity for not only growth but survival. Developingcountries are eager to find a place on the global stage and these same countries representrelatively large untapped markets. In order for multinational companies to be successful indeveloping these markets, expanded engineering skills are needed.Educational leaders and industry are pressing engineering and technology programs to moveforward and better prepare students for leadership roles in the globalization of engineering12.This includes a call for a major revolution in engineering education to provide more internationalelements within the curriculum and more
Session 2558A New Approach to Integrate Computer Technology Certifications into Computer Information System Programs Fanyu F. Zeng Indiana Wesleyan UniversityAbstractThis paper presents a newly designed curriculum model for the computer informationsystems. It first reviews the history of profession and certifications. It then addresses thecharacteristics and categories of information technology certifications recognized byindustries. The curriculums recommended by ACM and IEEE are reviewed to define corecourses for Computer Information System program. Several technology
present being tested in high school math, science,chemistry and physics courses as well as in community college chemistry courses. At presentthe HSTI team is evaluating plans to expand preliminary classroom trials throughout the scienceprograms of the School District of Hillsborough County, 11th largest in the nation.IntroductionThe High School Technology Initiative, HSTI, is a new approach to adapt and incorporate hightechnology materials into the state mandated secondary educational curricula. Members of theHSTI team believe that instructional modules can be used to engender an interest in pursuingtechnology, engineering, or science related careers by providing students with connectionsbetween technology and its underlying science as part of
students with the opportunity to become more comfortable with tackling open-endedprojects, we have integrated a series of open-ended experiences into our new biomedicalengineering curriculum. This series of eight open-ended projects and laboratories begins in thefirst-year introductory engineering course and extends through the senior design course. As ourstudents (approximately fifteen per year) progress through the curriculum, the level of emphasisplaced on project management and technical results is modified in accordance with anticipatedstudent abilities.Below, we provide a number of objectives for including this project sequence in our curriculum. Objective #1: To provide students with a sequence of open-ended projects throughout
Rose-Hulman Institute of Technology 5500 Wabash Ave, Terre Haute, Indiana, 47803 1. Abstract Engineering Physics (EP), at its core, is a multidisciplinary approach to solving problemsthat require insights from various traditional disciplines. The EP curriculum at Rose-HulmanInstitute of Technology strives to foster this multidisciplinary approach by incorporating studentprojects that require integrating concepts and principles from various fields into a meaningfulapproach toward a realistic solution. These projects, ideally involve a design / problemstatement, a fabrication step, and a testing or characterization stage. As an example of such anapproach, a new lab is proposed to provide students with an
entrepreneurial] skills that they learn are valuable inlarge companies as well, such as IBM, which is organized into units where entrepreneurship isencouraged6. Gifford Pinchot coined the term intrapreneur in 1985 to describe this new paradigm ofreleasing the entrepreneurial spirit within an established corporation. Whether the objective is to developindividual entrepreneurs or to inculcate intrapreneurship in a company there is clearly a need for coursessuch as Montana Tech’s PET 4460.One of the objectives of Montana Tech's interdisciplinary course, PET 4460, Petroleum ProjectEvaluation, is to introduce senior-level petroleum engineering students to the concept ofentrepreneurship by exposing the students to the "big picture" of how their engineering
research spans education and practice, working on the in- tegration of community research into project based learning. Her work overlaps areas of GIS mapping, global sustainable urbanism, design and creativity. She undertook a Fulbright in Valpara´ıso, Chile, to investigate, and map, devices of landscape as inspirations for the orders of community space. c American Society for Engineering Education, 2018 Mapping as Design-Thinking: Can GIS Help Engineering Students Approach Design?AbstractSpatial site design, accessed through GIS mapping, teaches three-dimensional data analysis skillsinvaluable for the contemporary engineering student. Integrating design-thinking
least eight years to get a four-year degree and four years to get a two-year degree. Formany, the financial burden is too great with the cost of education continuously increasing andthe time span too long for their education to be technically relevant in this rapidly changinghigh-tech New World. The Industrial / Mechanical Engineering Technology Division of StateTechnical Institute at Memphis (STIM) has developed an innovative High-Tech, Step-By-Step,School/Career Approach which is helping to elevate the high-tech manufacturing skill level ofthe Memphis and Shelby County labor force. This innovative Step-By-Step Approach can beadapted to other cities and communities. It is a seamless series of industrially endorsedcertificate programs centering
Session 3280 Curriculum Integration Using Case Study Approach for the Enhancement of Technology and Engineering Education William L. Call, Saleh M. Sbenaty Murray State University (Kentucky)/Middle Tennessee State UniversityAbstractIntegrating physics, mathematics, and communication skills in engineering and technologyeducation is one objective of the three-year NSF-funded grant titled “The South-East AdvancedTechnological Education Consortium, SEATEC.” The consortium is a collaborative effort of fivedifferent teams across Tennessee. Each team includes multi-disciplinary faculties, industrypartners
Engineering, and students enrolled in certain graduate disciplines andother continuing education programs.There is some literature relating the experiences of multidisciplinary teaching involvingengineering and business courses. The experience in combining a marketing research course witha bio-resource engineering course was assessed5. The latter combines biology and engineering tosolve problems in a variety of environmentally related fields. The approach of this course was toteam together students from both courses to work collectively on a project involving bothdeveloping and marketing a new product. The engineering students worked alone or in groups oftwo over a two-semester period on one project. The engineering students working on a
case studies, practical laboratories, and real-world projects into the mechanical engineering curriculum. Her current projects in- clude: incorporating the HVAC and building automation systems of Cooper Union’s new LEED-Platinum academic building into the control systems curriculum; designing interactive K-12 STEM learning tech- nology; modeling and optimizing vehicle systems; and characterizing structural dynamics properties using experimental modal analysis. Page 26.309.1 c American Society for Engineering Education, 2015 Building Sustainability into Control Systems: A New
, travellingabroad to implement those solutions. The curriculum approaches a topic that is not traditionallytaught in today’s engineering classroom. It has been shown, however, that “a lack of instructionand understanding of technological and environmental issues will seriously hamper the ability offuture citizens to keep pace with the ever-expanding role of technology in all facets of theirlives.”26Global Solutions for International DevelopmentThe goal of Global Solutions for International Development is to give students an overview ofthe issues facing developing communities worldwide and introduce them to ways they can makea difference. The course begins with a look at the historical context of development issues andthe forces that lead to developmental
Establishing an Entertainment Engineering Curriculum Robert F. Boehm Mechanical Engineering Department and Joe Aldridge and Brackley Frayer Theatre Department University of Nevada Las Vegas Las Vegas, NV 89154AbstractA new, multidisciplinary program in Entertainment Engineering and Design is being establishedat the University of Nevada Las Vegas. The name of the program could be defined in a numberof ways because few programs of this type exist and the field is so broad. Our