AC 2007-293: A MODEL CURRICULUM FOR SERVICE SYSTEMSENGINEERINGLeonard Bohmann, Michigan Technological UniversitySheryl Sorby, Michigan Technological UniversityDana Johnson, Michigan Technological UniversityKris Mattila, Michigan Technological UniversityJohn Sutherland, Michigan Technological University Page 12.65.1© American Society for Engineering Education, 2007 A Model Curriculum for Service Systems EngineeringAbstractOver the past 100 years, the US economy has evolved from one based primarily in the goods-producing sector (agriculture, manufacturing, and mining) to the service sector. Today theservice sector accounts for more
funded bythe NSF-CRCD (Combined Research-Curriculum Development) program. Moreover, OSU’sHonors House is funding an interdisciplinary course on "Sensor Materials," targeted for honorsstudents in engineering and physical sciences. This multifaceted program is strengthening tiesbetween the federal, state, university and industry partners. The greatest benefit has come fromintroducing industry projects into the university’s engineering and physical sciences, thusproviding students and faculty the opportunity to work on research relevant to industry.I. Introduction On most campuses of higher education with significant research activity, there is acontinuing debate on the appropriate balance between research and education. Should we bedoing
. Chelsea Armbrister is currently a Program Manager for student experiences at the FAMU-FSU College of Engineering. Having been a participant in programs similar to that which she manages, she has a passion for designing programs that are tailored to students unique and individual needs. ©American Society for Engineering Education, 2024 Manufacturing Inclusive Excellence: An Intersectional, Mixed Methods Study of Engineering Identity among Undergraduate Research Students at a Historically Black University Lara Perez-Felkner Ciera Fluker Chelsea Armbrister Tarik Dickens Educational Leadership &
mathematics, science, and engineering (b) an ability to design and conduct experiments, as well as to analyze and interpret data (c) an ability to design a system, component, or process to meet desired needs (d) an ability to function on multi-disciplinary teams (e) an ability to identify, formulate, and solve engineering problems (f) an understanding of professional and ethical responsibility (g) an ability to communicate effectively (h) the broad education necessary to understand the impact of engineering solutions in a global and societal context (i) a recognition of the need for, and an ability to engage in life-long learning (j) a knowledge of contemporary issues (k) an ability to use the techniques, skills, and modern engineering tools
for the new millennium.The Method: A Process OrientationTo revitalize our program, the Industrial Engineering Technology (IET) division decided tofocus our efforts on creating alignment between student learning, curriculum design, and careerpaths following graduation. This placed the emphasis on education as a process. We felt thisapproach would enable us to improve our customers’ perception of value, thereby increasingboth enrollment and employment opportunities upon graduation. Page 5.94.1When education is viewed as a process, the curriculum reflects an understanding of the links ofmaterial within a course, links between courses within a
loads and application-oriented controlsdictate the combined efforts of faculty, staff, and students in the preparation of well-educatedspecialists. The experience of stepper motor applications across the EET curriculum brings abetter engineering practice to the classroom changing the questions from “what” and “how” tomind enhancing and knowledge stimulating “what if.”References.1. Grinberg, I., and Stratton, J. “A Systems Engineering Approach to Engineering Design Methodology.” Journal of Engineering Technology 13, No 2 (Fall 1996): 8- 132. Buffalo State College. Final Reports on Student Projects. Stepper Motor Application. Buffalo, NY: Buffalo
Virtual Annual Conference Content Access, Virtual Online, 2020..4. A. Kolmos, R. G. Hadgraft, and J. E. Holgaard, “Response strategies for curriculum change in engineering,” Int J Technol Des Educ, vol. 26, pp. 391-411, 2016.5. R. Dorado-Vicente, E. Torres-Jiménez, J. I. Jiménez-González, R. Bolaños-Jiménez, and C. Gutiérrez-Montes, “Methodology for training engineers teamwork skills,” in 2020 IEEE Global Engineering Education Conference (EDUCON), 2020: IEEE, pp. 587-591.6. T. Chowdhury and H. Murzi, “Literature review: Exploring teamwork in engineering education,” in Proceedings of the Conference: Research in Engineering Education Symposium, Cape Town, South Africa, 2019, pp. 10-12.7. L. Ballesteros-Sanchez, I
Virtual Media for Enhancing Student Learning in Additive ManufacturingAbstractWorkforce development is the most critical factor to maintain a sustainable manufacturing industryin the US. Despite the current efforts being made, job openings in the manufacturing sector exceedapplicants, primarily due to a skills gap, resulting in part from the introduction of new advancedtechnologies and automation. Such technologies may not be immediately included in themanufacturing curriculums in higher education, especially in engineering programs with limitedresources and access to capital manufacturing equipment. Virtual Reality (VR) technology offersimmersive, interactive, and engaging experiences; and 360-degree media based on real
Engineering and the development and approval of a Master of Science (resident) / Master of Engineering (online) in Additive Manufacturing and Design, which was the first such degree offered in the United States. Dr. Thole has been recognized for her efforts in mechanical engineering education and diversity as a U.S. White House Champion of Change, and by ASME’s Edwin F. Church Medal, ABET’s Claire L. Felbinger Diversity Award, and SWE’s Distinguished Engineering Educator Award. She has also been recognized for her faculty mentoring efforts through Penn State’s Rosemary Schraer Mentoring Award and Howard B. Palmer Faculty Mentoring Award. American c Society for
advocacy around hidden curriculum in engineering,” in SEFI 47th Annual Conference: Varietas Delectat... Complexity is the New Normality, Proceedings, 2020, pp. 1566–1575. Accessed: Sep. 07, 2020. [Online]. Available: https://par.nsf.gov/servlets/purl/10162378[2] F. D. Kentli, “Comparison of hidden curriculum theories,” European Journal of Engineering Education, vol. 1, no. 2, pp. 83–88, 2009.[3] S. Nieto, Affirming diversity: the sociopolitical context of multicultural education. Longman, 1992. [Online]. Available: http://lp.hscl.ufl.edu/login?url=https://search.ebscohost.com/login.aspx?direct=true&Auth Type=ip,uid&db=cat04364a&AN=ufl.023212249&site=eds-live[4] I. Villanueva, L. Gelles
manufacturing automation from Huazhong University of Science and Technology. As a senior researcher and teacher he shared working experience c American Society for Engineering Education, 2017 2017 ASEE International Forum:Columbus , Ohio Jun 28 Paper ID #20830 in University of Toronto,Tsinghua University, Carleton University, INRIA/Sophia Antipolis, VTT/Oulu, Henri Tudor Research Centre in Luxembourg. He has published 100 plus peer-reviewed scientific articles. His research interests include education technologies, Internet of Things, pervasive service computing
health andsafety of consumers. The class also discussed the trustworthiness of food manufacturers and thegovernment agencies who are supposed to regulate them. The goal of the discussion, lastingapproximately 20 minutes, was to allow students to observe the varying views of theirclassmates.Since the Departments of Engineering Education and Biological Systems Engineering are onlybeginning to implement ethics training using the spiral themed curriculum, it is essential todevelop an assessment plan for future evaluation. As mentioned above the tool utilized for thisexercise was a pre- and post- survey. At the end of the class discussion, students were asked tocomplete a post-survey which consisted of the same eight questions given in the pre
not yet had my course in statistical quality control.Second, we saw openings for quality engineers developing nationwide in all industries and wantedto give our MSIE students the option to fill them. Students were contacting us to see if they could“major in quality” within our program. Finally, I had a personal interest in seeing the concentrationin quality succeed based on my growing participation in ASQC (now ASQ) and my extensivereadings of “the quality masters,” including W.E. Deming, J.M. Juran, A.V. Feigenbaum, P.B.Crosby, K. Ishikawa, and others.The content of the original curriculum was motivated by:& The body of knowledge for the ASQ Certified Quality Engineer and Certified Reliability Engineer Exam;& The body of
sources, due to theinherently interdisciplinary nature of robotics field coverage and laboratory hands-oninstrumentation requirements. Thus, a concise and collaborative robotics curriculum, tracking anational design competition and offering a mentoring opportunity, can provide significantcontributions for a viable solution, with many pedagogical benefits.Interdisciplinary nature of robotics offers enormous educational opportunities for students. Arobotics engineer needs to have a general scientific background and multidisciplinary technicalskills in, at least, mechanical and electrical engineering, computer science, physics, and controlsystems for anticipated open-ended real world problems. Robotics students can benefit fromeffective learning
-curriculumapproach is taken whereby each of these is introduced early on and then reinforced throughoutthe curriculum through a variety of different experiences. This paper describes the methods usedto develop students’ abilities in each of these areas, the ways in which each of these areas areincorporated and integrated vertically into the ME curriculum.IntroductionOver the past several years the goals of engineering education have expanded to includeemphasis on non-technical attributes that complement a strong technical foundation to produce awell-rounded engineering graduate. These include communication skills, the ability to functionin teams, knowledge of societal and contemporary issues, development of global perspective,and ethics awareness. Some have
Learning byExploring. Each of the above teaching architectures applies directly to computational designteaching and is illustrated later in this paper. While there is still debate regarding the exclusivity of the ELT approach (whether itcovers all possible situations), there are plenty of cases where adopting it could become aneffective tool to enhance educational experience, particularly in early years of college education.Examples of curricular activitiesThe basis for defining a successful program for first-year students is not whether it is digital oranalog based, but rather how the curriculum connects to the students’ already possessedknowledge and their ability to build on this knowledge. That said, more and more incomingfreshmen are
Learning byExploring. Each of the above teaching architectures applies directly to computational designteaching and is illustrated later in this paper. While there is still debate regarding the exclusivity of the ELT approach (whether itcovers all possible situations), there are plenty of cases where adopting it could become aneffective tool to enhance educational experience, particularly in early years of college education.Examples of curricular activitiesThe basis for defining a successful program for first-year students is not whether it is digital oranalog based, but rather how the curriculum connects to the students’ already possessedknowledge and their ability to build on this knowledge. That said, more and more incomingfreshmen are
used for evaluating the effectiveness of thevertical integration approach.IntroductionConstruction Management (CM) education is a holistic field within academia typically distinctfrom architectural and engineering curriculums, primarily focused on teaching the ‘business ofmanaging the construction process with the changing technology of the industry’ (1). BuildingInformation Modeling (BIM) is one such technology popular amongst the Architecture-Engineering and Construction (AEC) industries that makes use of the embedded intelligence indigital design and construction data to inform the construction management process. Theindustry has embraced BIM as a technological, cultural and philosophical concept, reapingbenefits such as time and money
complete the project and thebusiness management strategies that contributed to its success. It discusses the lessonslearned by students working on the project and from interaction with students from otheruniversities during the competition. Lessons from the post competition analysis, includingstrategies for future competitions are discussed. Finally, the overall impact resulting fromthe project on the training of engineering students, curriculum development and updatestrategies are discussed. Page 8.719.1Keywords: Integrated Engineering Education, Multi-Disciplinary, NationallyProceedings of the 2003 American Society for Engineering Education Annual
courses for engineering students and leads study-abroad trips for students. c American Society for Engineering Education, 2018 Integration of Global Competencies in the Engineering CurriculumKeywords: curriculum, study abroad, globalIntroductionThe need for developing global competency in engineering students has received considerableattention over the past several years and a number of high-profile reports [1] [2] have highlightedthis need. A variety of programs have emerged to address this need ranging from namedprograms like Purdue’s Global Engineering Programs [3], college programs focused on theEngineering Grand Challenges (see for example [4]), at least one “global competence certificate”program [5
, has a tremendous need for capable engineersto address the needs of its various economic sectors. While there are clear emerging research anddevelopment activities at universities and major companies and research centers, there is animmediate need for a competent workforce that is readily available to participate in thedevelopment of the Saudi economy. Among the much needed skills for this workforce are designto specifications, manufacturing, assembly, testing, integration, and deployment. These skills arenecessary to quickly, and efficiently and economically develop products that address theimmediate needs of the fast developing Saudi population.The lack of an educated workforce with the above mentioned skills, has been the result of
, I., and V. Jovanovic, “A Pilot Course as a Step towards NewAcademic Programs in Renewable Energies”, Proceeding of 2022 ASEE Annual Conference,Minneapolis, June 2022.[13]Belu, R. and Belu A. “An Undergraduate Course on Renewable Energy Systems withEnhanced Marine Energy Content, Proceeding of 2021 ASEE Virtual Annual Conference, July2021.[14] Belu R. and Husanu I.” Embedding Renewable Energy and Sustainability into theEngineering Technology Curricula”, American Society of Engineering Education, 2012.[15] Kavianpour, A. Renewable Energy Engineering Technology (REET) Program, Proceedingof 2020 ASEE Virtual Annual Conference, June 2020.[16] Bass, R. and White T. Curriculum Changes Resulting in A New B.S. In Renewable EnergyEngineering, 2009
Page 9.805.2(SMAs) are “smart” materials that have the ability to return to a predetermined shape Proceedings of the 2004 American Society for Engineering Education Annual Conference &Exposition Copyright 2004, American Society for Engineering Educationwhen heated or cooled. This property enables a SMA to be used as a sensor or actuatorand is becoming a popular choice for many modern controls applications. Both of thesematerials, SMAs and MR fluids, are relative new control devices and not normallyprominent in the core undergraduate curriculum, although they are normally covered inelective controls courses. With the intent both to provide meaningful electro-mechanicalsystem design problems for the capstone class and to
decided to change from the quarter system to the semestersystem by the fall of 1997. While a number of our sister schools at Mercer planned to simplyroll their current curriculum into the semester format, the School of Engineering faculty decidedto take this opportunity to reshape our engineering program and achieve a new vision. Thisimpetus came from both external and internal forces.Externally, we were aware that ABET was working on a new set of criteria that would changethe way our programs would be reviewed for accreditation. In addition, our colleagues at otherschools and our advisors from industry confirmed our sense that engineering education needed toincorporate ways to assess its outcomes and provide mechanisms for responding to
I. In any case, it is expected that any of the possible external degree program matriceswould be similar to Table I in the sense that they would work their way through Table I – top to Page 10.56.9bottom – but be only one or two columns wide [2, 3]. Proceedings of the 2005 American Society for Engineering Education Annual Conference & ExpositionCopyright ©2005 by C.F. Newberry. Published by the American Society for Engineering Education with permission. Table I Model Missile System Design Engineering Graduate Curriculum
appointment as Associate Dean, Dr. Sorby served as chair of the Engineering Fundamentals Department at Michigan Tech. She received a B.S. in Civil Engineering, an M.S. in Engineering Mechanics, and a Ph.D. in Mechanical Engineering-Engineering Mechanics, all from Michigan Tech. Dr. Sorby has a well-established research program in spatial visualization and is actively involved in the development of various educational programs.Tania Jarosewich, Censeo Group LLC c American Society for Engineering Education, 2016 Spatial Skills Training Impacts Retention of Engineering Students: Does This Success Translate to Community College Students in Technical Education?I
the Design I course, and of software tools based on MATLAB and/or M athematica in the performance class. The software packages that the students use in these two early courses will be used futher in computational prob- lems throughout the curriculum. In addition, the department is embarking on an educational software initiative, developing software for the engineering science courses. Much of this software is in place; it remains to put a consistent interface on what is there, add to the software base, and incorporate these modules consistently into the courses. Engineering ethics The students will have lectures on this topic in Engineering 100. In addition, the upper-level design courses will supply some
, I learned a lot in this course.”5 ConclusionsWith the rapid advances in technology, it is now possible to embed computing capabilities invirtually all manufactured devices. To realize the full potential of this technology, engineersmust be trained to manage the complex design problems that are entailed. An important factor isthe recognition that sound solutions require an understanding of concepts not covered in any onediscipline. This paper presented an interdisciplinary curriculum that represents a first-step in thatdirection. This new curriculum enables students to develop high assurance, state-of-the-art, real-time embedded systems.This curriculum is a work-in-progress, and will certainly evolve, just as the technology and needsof
AC 2012-4405: ECE CURRICULUM IMPROVEMENT TO INCORPORATEGLOBAL LEARNINGDr. Phillip A. Mlsna, Northern Arizona University Phillip Mlsna is currently an Associate Professor in the Electrical Engineering and Computer Science Department at Northern Arizona University. His primary research interests are in image processing, computer vision, engineering education, and academic ethics. He has extensive experience as a Computer Hardware Engineer at Hewlett-Packard.Dr. Niranjan Venkatraman, Northern Arizona University Niranjan Venkatraman obtained his Ph.D. in electrical and computer engineering from the University of Florida, Gainesville, in 2004, and is currently an Associate Professor in the Department of Electrical
. Page 13.732.1© American Society for Engineering Education, 2008 Incorporating HDL Based Design Flow in EET CurriculumAbstract:Based on industry trends and advances in silicon manufacturing technology in recent years,it is becoming apparent that future electrical and computer engineers will most likelyimplement their digital designs using programmable logic devices such as CPLDs andFPGAs, rather than discreet IC components. They may also encounter electronic systemsbuilt on such devices in their engineering practice. Therefore, it has become necessary toincorporate related design techniques into courses even at the undergraduate level. Thispaper discusses the introduction of and teaching of such courses to undergraduates majoringin the