inter- est is in 3D modeling and applications, CAD/CAM/CAE, manufacturing system design and planning, and computer simulation and OR. He renovated the industrial and manufacturing engineering curriculum with introduction of CAD/CAM/CAE and 3D modeling applications to manufacturing systems, and has taught Boeing engineers on the subjects for about 20 years. He was a recipient of NSF grants on developing a supply-chain manufacturing system and on developing an integrated design-aid tool for flexible manufac- turing systems, and of AHA (American Heart Association) grant on volumetric assessment of epicardial adipose tissue using echocardiography . He authored a book on CAD on Unigraphics: Engineering De- sign in
participation. The research team structure is based ona business model of modular components. Students and professors are both an integral part ofthis modular structure, with students involved at various levels, including management. Eachcomponent is treated as an individual hierarchy with its own set of goals, yet responsible to theoverall management structure and research objectives. The challenges that are naturally inherentto using only undergraduate students for research are addressed in this paper via a description ofboth the team structure and multi-level student participation. Dissemination of results is a criticalportion of the research process, with requirements for external publication an integral part of theobjectives set for the team
learn how to use the IEEE style guidelines, properly use IEEE citations and citation how to properly cite resources and how to cite in guidelines text. Students also learn how to properly integrate resources in text. 6 How to write an abstract. Students learn about To prepare for the annotated bibliography, students how to formulate an abstract and then write learn to summarize resources. abstracts for published articles with abstracts removed. 7 Session 3 with the engineering librarian, how to Students learn how to write an annotated write
from this project and identify the areas that are being explored for furtherinvestigation and refinement.IntroductionThe Grammy Award-winning band OK Go is known for its entertaining music videos whichinvolve a unique integration of science, math, engineering, and/or technology with their music.The band was pleased to learn that teachers were using OK Go’s music videos in theirclassrooms as an exciting way to show the design process in action. This led to the bandmembers wanting to provide teachers with more real-life material to share with their students.When the band crossed paths with an engineering professor, that desire became more plausibleand the idea for OK Go Sandbox began to take form. Through collaboration among the band,college
, and are better prepared to contribute to the naval enterpriseThe Value of NEEC: Navy• Providing engineers that understand multidisciplinary engineering in a time of need.• Contributes to Navy STEM initiative.• Strengthen Naval Engineering faculty cohort.• Provide a centralized focus for Naval Engineering Education at an Undergraduate level.• Connect the Navy with capable students who understand what naval engineering is all about!• Engage students in important Navy problems through project- based education. Conclusion• Contact us with any questions• Potential partnerships?• Website: www.GoNEEC.org• Contact: Steve Ceccio• Find our social media networks: – Facebook: www.facebook.com/GoNEEC – Twitter
main reasons for this is to helpyoung minds develop an interest and desire to learn math and science early in their education. Inthis way, they are better positioned to consider and pursue STEM related careers after highschool. To this end, agencies such as the National Science Foundation and others havedeveloped funding programs focused on the development of methodologies and curricula thatcan support the introduction of STEM in the current K-12 educational system. As a result,public educational systems and institutions of higher learning are responding. As an example,the State of Texas has developed a set of STEM academies (T-STEM) devoted to introducingSTEM as part of the secondary curriculum and increase students’ college readiness for
of problem solving in the workplace. Forinstance the SCANS Report “What Work Requires of Schools” [1], states that problem solving isan essential thinking skill for workers. Engineers, physicians, managers, etc. are hired, retained,and rewarded for their abilities to solve workplace problems. For engineering education, thismeans a challenge to integrate workplace real-world problems into the curriculum and stayingabreast with new challenges and changing roles of engineers in the workplace.If education programs are to fulfill these challenges, a better understanding of the nature ofworkplace problem solving is necessary. This holds especially true for instructional andeducational strategies that heavily utilize problems, like ‘problem-based
program enjoyed an itinerary thatincorporated cultural immersion though site visits, insights into the historical and contemporarycontext, as well as intentional interactions with locals and students from the region. An emphasison traditions, the gastronomic ecosystem, intercultural communication, and aspects of the localeconomy were part of the curriculum. These cultural elements were integrated into a robusttechnical presentation course designed for engineering students.The approach to fostering the global awareness, global understanding, and the ability toeffectively apply intercultural knowledge [3] that embodies global competence had been to 1)offer a pre-departure course and 2) include a faculty member with regional expertise on thetravel
fairness and mistreatment in the workplace and in STEM classrooms and programs.Dr. Jeffrey E. Froyd, Ohio State University Dr. Jeffrey E. Froyd is a Professor in the Department of Engineering Education in the College of En- gineering at Ohio State University, College Station. He received the B.S. degree in mathematics from Rose-Hulman Institute of Technology and the M.S. and Ph.D. degrees in electrical engineering from the University of Minnesota, Minneapolis. He was an Assistant Professor, Associate Professor, and Professor of Electrical and Computer Engineering at Rose-Hulman Institute of Technology and a Research Profes- sor at Texas A&M University. At Rose-Hulman, he co-created the Integrated, First-Year Curriculum
.” Proceedings of the 2001 ASEE Annual Conference, Multimedia Session. Available CD- ROM. 5. Wood, J.C. “An Interdisciplinary Problem-Based Engineering Technology Freshman Curriculum.” Proceedings of the 1998 ASEE Annual Conference, Session 2248. Available CD-ROM. 6. Clark, W.M., DiBiasio, D., and Dixon, A.G. “A Project-Based Spiral Curriculum for Chemical Engineering.” Proceedings of the 1998 ASEE Annual Conference, Session 1313. Available CD-ROM.BiographySOHAIL ANWARSohail Anwar holds a Ph.D. degree in Industrial and Vocational Education from the Pennsylvania StateUniversity and a M.S. degree in Electrical Engineering from the University of
in industry and is now a standard engineering tool for both analysis and design.When FEM first appeared in the 1960’s it was introduced into the engineering curriculum at thegraduate level. As the method and computer technology matured, FEM was introduced at theundergraduate level in engineering and engineering technology programs, even in some two-yearengineering technology programs. Today, FEM is primarily offered as an elective undergraduatecourse in mechanical, civil, and aeronautical engineering programs. Fatigue analysis that in the past was carried out by hand and/or in-house computer programsis now done using commercial FEM software. Fatigue design modules have recently beenintegrated into commercial FEM codes that include ABAQUS
Page 8.479.2Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright© 2003, American Society for Engineering Education The Macromedia Director™ based materials engage the student in the learning process andpresent the content in a format that enhances the visualization of “big ideas” in electricalengineering. The technologies include: 1) a means to capture, review and process all userinteractivity while accessing a learning module (Scribe); 2) an interactive, collaborative tool forexploration, design and testing across the Internet (WebTeam); and 3) access to instrumentedexperimentation via the Internet (LongLab). Twenty-four modules have been developed, and werespecifically designed to
. Figure 4. An 8″ long vehicle takes off with 3 engines firing Figure 5. An 8″ rocket bus in transitFigure 6. An 8″ rocket bus with four axles after arrival Figure 7. An 8″ rocket bus with four axles impacts with engines still thrustingTables 2 and 3 show how downloaded acceleration data in Figure 8 and Table 1 is converted intovelocity (Figure 9) and distance (Figure 10) traveled using numerical integration. Students feltthese two steps were exciting and fun using real data they collected. Table 2. Vehicle 1 Data Analysis (Part 1) Time Raw Y acc AdjustedY acc Y acc Trapezoid Width Left Right Area (seconds) (G) (G) (m/s2) Hght Hght 8.85
shown by comparison in Table 1.Table 1: Engineering degree recipients for U.S. citizens or permanent residents. UNM, B.S. (21-22) UNM, Ph.D. (21-22) National, Ph.D. (2019)All recipients 266 23 4725U.S., females 79 0 1312Latinas 36 0 91Engineering and research identity has been used as an analytical lens for describing andunderstanding the achievements and persistence of students in engineering curriculums [10]–[16]. These studies have also proposed interventions that might increase student interest andconnection to their engineering field of study [17]–[19]. Further these studies
courseAbstractOver the past years, our team has taken a concerted effort to integrate computational modules intocourses across the undergraduate curriculum, in order to equip students with computational skillsin a variety of contexts that span the field of Materials Science and Engineering. This effort hasproven sustainable during the recent period of online transition of many courses, illustrating oneof the benefits of computational modules. The most recent addition to our set of modules includeda visualization component that was incorporated into our introductory freshman course for thefirst time in Fall 2019. Students can perform this module either using local computer labs, accessthose resources remotely, or via their own computers. In the Fall of 2020
integrity and traceability throughout the systemlife cycle. CM provides a means to insure effective and efficient engineering and managementreviews, costing, and adoption for approved product and process changes. Doing CM well canhave a significant influence on reducing costs and improving productivity.Although professional development programs are available to provide corporate managers withan understanding of CM, there is little coverage of CM in typical engineering and managementcourses in universities. This may partially be the result of limited CM educational resources forfaculty use. For that reason, we have prepared a CM Overview Module and Instructor’s Guideto be used in a one-to-two week segment of engineering or management courses. The
international team conducted research on one of four components of an integrated research program investigating wetlands adjoining Lake Victoria.2 Benin Groundwater Research and Development in Benin The program was initiated in 1998, with Benin student involvement since 2000 University of Notre Dame and annual trips involving US students since 2003. 2002-2005 involved a Universitéd’Abomey-Calavi summer Research Experience for Undergraduates (REU). 2006-2008 involved a Long-Term Research (LTR) Program. The REU involved 2-4 weeks of pre- travel
Session 2354information technology integration in today’s military systems. 1 This survey, part of acurriculum review, entitled “Curriculum 21,” was the primary reason for instituting a secondcourse and was an input into the process that defined the make-up of that course. The results ofthat study are reported in more detail along with the initial response to that study in the form of anew course.2 The Academic Dean’s desire was to look at how we could get this material into oneof the required courses in the technical core that all non-engineering students must take.II. Technical Core Improvement GroupIn the year 2000, the Academic Dean formed a committee, the Technical Core ImprovementGroup (TCIG), to examine the entire technical core. This
introductory session, thesemester is divided into a sequence of six 2-week periods for the processing part of thelaboratory. The final two weeks of the semester are devoted to testing the devices made. Duringeach of the 2-week device processing sessions, one team is assigned to build integrated circuitdevices and the other is involved in a process development experiment. The teams switch rolesevery two weeks. The Fabrication and Test team (the FATs) are the device builders. Theirobjective each week is to take the wafers through a section of the pmos process which consists ofapproximately 150 total steps. They communicate the status of the batch of device wafers at theend of the two weeks in an Oral Status Report before passing this job on to the other
think more critically about the technicalcontent, promoted accountability and more effective time management.IntroductionLaboratories are an integral and essential component of engineering education [1,2,3]. TheMechanical Engineering program at Western Michigan University (WMU) requiresundergraduate students to enroll in five elective courses, two of which must satisfy a laboratory Proceedings of the 2024 ASEE North Central Section Conference Copyright © 2024, American Society for Engineering Education 1requirement. The course Internal Combustion Engines I (IC engines) is a three-credit laboratoryelective
% improvement on students’ problem-solving skillsrelated to specific heat. 95% of the students felt that, after this new and student designedexperiment, they had a much better understanding on the topic.IntroductionThe most important goal of engineering education is to help students not only understand themathematical and physical equations of the engineering concepts but also their real-lifeapplications. To bridge the gap between the equations and the real-life applications and enhanceunderstanding of the concepts, lab experiments have been added as integral parts of manyengineering curriculums aimed at assisting students’ learning and applying engineering concepts.Lab classes are more easily to provide an active learning environment [1] because
through during a design. Tobuild upon concepts learned and components used, few sensors and integrated circuits were added to thedesign to construct the full hardware of a smart street light in figure 3. Smart street lights are the public streetlighting that adapt to the light in the surrounding where they are automatically turned OFF or ON during theday and night respectively. To add functionality to the design, a simple introduction to programming was donewhere participants wrote a simple code to make an LED blink. Fig. 3: Smart street light hardware design.Day 4: Smart Street Light Software Design (Related Disciplines: Engineering, Technology, and AppliedScience, Computer Science)Participants were
international and intercultural contexts withengineers who define problems differently from themselves1, 2, 3. To meet those workforcedemands and needs, Virginia Tech offers a program which integrates an on-campus, semester-long experience with a two week international experience in a course for first year engineeringstudents. This study focuses on understanding the range of learning experiences from theperspectives of enrolled students that occurred during the two week international module.Throughout the two weeks students traveled through Italy, Switzerland, Germany, and Franceengaging in local culture and customs during visits with engineering businesses and universities.These visits, intentionally selected by the program faculty director to align
-Sacre, M, Atman, C, J, Shuman, L,J, " Characteristics of freshman engineering students: Models fordetermining student attrition in engineering ", Journal of Engineering Education, 86, 2, 1997, 139-149.[2] Grose, T, K, "The 10,000 challenge", ASEE Prism, 2012, 32-35.[3] Johnson, M, J, Sheppard, S, D, "Students entering and exiting the engineering pipeline-identifying key decisionpoints and trends", Frontiers in Education, 2002.[4] Olds, B, M, Miller, R, L, "The effect of a first-year integrated engineering curriculum on graduation rates andstudent satisfaction: A longitudinal study", Journal of Engineering Education, 93, 1, 2004, 23-36.[5] Froyd, J. Ohland, M, W, "Integrated engineering curricula", Journal of Engineering Education, 94, 1, 2005
-semester project course,(3) approaches of ET students in handling cutting-edge technology, (4) the competition rules andscoring, and (5) student feedback and discussion. This paper will serve as a teaching aid for theinstructors currently teaching or planning to teach senior design courses in the near future. Mostspecifically, the paper will help the new junior faculty members in planning the course andadapting grading and reporting procedures. In the next section, a brief overview of the coursestructure, objectives, outcomes with project requirements and team selection are presented.2. Course Structure, Objectives, and Learning OutcomesIn order to offer an interdisciplinary project experience to ET students at OSU, EET and METprogram integrated
degree in Curriculum and Instruction with a specialization in Learning Technolo- gies. She, also, has a background in Mathematics Education and Engineering.Mr. Rhys Bowley, National Instruments Rhys is an engineer working at National Instruments in a role that focuses on wireless communications in education. Rhys graduated with a Masters (MEng Hons) in Communications and Electronic Engineering from Cardiff University, where he spent a short time working as a researcher in loadpull characterisation techniques for mobile device power amplifiers. During his time at Cardiff he also taught lab classes in LabVIEW programming for both under graduate and post graduates alike. His passion is that wireless communications in
individualengineering and musical concepts, respectively. In addition, student understanding and retention Page 26.1180.9of the data acquisition concepts were shown to significantly improve.AcknowledgmentsThis project was partially supported by the Andrew W. Mellon Foundation STEAM CurriculumGrant.References1 Felder, R., Peretti, S., “A Learning Theory-Based Approach to the Undergraduate Laboratory”, ASEE ConferenceProceedings, Session 2413, June 1998.2 Head, L., “Signals, Systems and Music: General Education for an Integrated Curriculum”, ASEE ConferenceProceedings, Session 1424, June 2011.3
‘boundaries’ which define a particular engineering discipline. Summitparticipants dared ask the question: “In the context of the mid-twenty-first century, what is a civilengineer?” Two elements related to this most fundamental question involve the impact oftechnological advancement, and the evolving role of the civil engineer in society.ASCE’s The Vision for Civil Engineering in 20254 (published in 2006) anticipates theevolutionary, holistic nature of the role of civil engineers: “In 2025, civil engineers will serve as master builders, environmental stewards, innovators and integrators, managers of risk and uncertainty, and leaders in shaping public policy.”Obviously, an undergraduate civil engineering program is not sufficient to
interests include electrical machinery design, modeling and analysis of electric drives, and control of electric drives.Mr. Donald V. MacKellar Jr., Gannon University Donald V. MacKellar Jr., received his B.S.C.S degree from New Mexico State University in 1983 and his M.S in Computer Science from Gannon University in 2006. He became a full-time professor in the Electrical and Computer Engineering Department at Gannon University in 2007 after 9 years of being an adjunct professor in Computer Science and Computer Engineering. He currently teaches Cyber Engineer- ing and Embedded Systems at Gannon. He was the architect of the hardware in the loop simulation and test environments for the global integration and test labs for
quality of the senior computer design projects. We plan to measure this by sponsoring such projects in both internal and external design competitions. Page 6.457.11 11 3 Conclusions The new lab has integrated state of the art design tools in a consistent manner throughout the ECE curriculum. Each design workstation has been configured with adequate hardware and computational resources to give students a complete and integrated design experience. This has allowed the students to go from an initial "on paper" design to an actual hardware realization, which can