engineering curricula. Among the multiple ways used to cultivatecreativity, arts integration might be one of the most underappreciated ways.Based on the conclusions of this paper, we suggest that we should attach importanceto arts education. Some reports at both the K-12 [21] and professional levels [22] haveshown that integrating arts and science/engineering could have unexpected effects.Some colleges such as Rose-Hulman Institute of Technology have even steppedfurther to explore a new combination of arts and engineering, in which the course wasprovided from an art perspective with examples of engineering pulled in to reinforcetopics in art, rather than creating an engineering course with examples of art pulled in.This course engaged students in the
a few steps ofprogramming. For example, a Proportional Integral and Derivative (PID) controller can bedesigned, tuned and demonstrated to students in a few steps. This tool can be used to modelan electromechanical device such a servomotor system that consists of a servomotor, a servodrive, an encoder, a gearbox, and a load. The virtual model setup in turn would carry the wholeconcept through graphical demonstrations including timing. Furthermore, this software toolcan communicate with simple real world hardware such as a switch and a light bulb to a verycomplicated hardware like a hydrocarbon based fuel reformer. Page 3 of 15SoftLogix 5800, Studio 5000, and
students detect inconsistencies in theirargumentations. Tested PSLEs favored the development of students’ ability to argue throughoutthe curriculum. Very important differences (occurrence and quality) concerning argumentationamong individual students from the same semester were detected by means of qualitative dataanalyses, mainly with regards to adequacy of premises, organization of arguments, and quality ofclaims. Our results validate that argumentation is an essential skill in learning to solve studied Page 26.234.2food engineering problems as well as a powerful method for assessing problem-solving abilityfor both ill-structured and well
desirable for programs that do not have designthroughout the curriculum where the multiple design experiences fill a void in the program. The Page 5.135.4major advantage of multiple projects in one course is the ability to integrate many aspects ofengineering together. With single project courses, some aspects of engineering may be integratedbut with multiple design projects there are more opportunities to integrate more engineeringaspects together. There are two major disadvantages of a multi-project design course. Five weeks onaverage per project is a very tight time schedule to do design. Therefore, the projects must bevery limited in
mechanics course,Capstone includes an entire module in DC motor, stepper motor, and servo motor control. Thismodule provides students the hands-on skill set needed to create functional mechanicalengineering prototypes that move as they do not learn it elsewhere in the curriculum. Interestingly, students report enhanced course enjoyment fostered by the opportunity tolearn new skills. So, it is positive that they do learn these skills somewhere in the curriculum andthrough hands-on application in Capstone rather than a pure theory-based exposure. It is, however,worrisome that they are having these experiences for the first time in Capstone rather than learningin a prerequisite course, bringing those skills into Capstone, and using the
serve the anticipated 400 mentees for the fall semester 2005, aformal application and interview process was conducted during the spring semester 2005.Information on the mentor positions was posted on the CoE/CEED web site and sent out in emailmessages over student listservs. Requirements were instated to ensure candidates met certainstandards. To be considered for the program, prospective mentors had to 1) be a Virginia TechCoE student, 2) have completed their first-year of the general engineering curriculum and beaccepted into one of the 11 CoE departments, 3) have earned an overall GPA of 2.5/4.0, 4) be afull-time student in the fall semester 2005, 5) be able to attend a four-hour mandatory trainingsession the Friday before fall classes began
? Page 10.703.13 “Proceedings of the 2005 American Society for Engineering Education Annual Conference & Exposition Copyright © 2005, American Society for Engineering Education”References1 Masters, C. and R. Behr (2001). Integrated Statics Experiments in the ‘MechANEX’ mini-laboratory, 2001 Annual Conference Proceedings, American Society for Engineering Education, June 24-27, Albuquerque, New Mexico.2 Behr, R (1993). Concurrent Structural Analysis and Experimentation Using the ‘AN/EX/ Mini-Laboratory, Computer Applications in Engineering Education, Vol. 1(3), pp. 213-222.3 Belarbi, A, R. Behr, M. Karson, and G. Effland (1994). Formal Assessment of the AN/EX Structural
Paper ID #6826Development of a Framework for the Online Portaion of a Hybrid Engineer-ing CourseDr. Natalya A. Koehler, Iowa State University Dr. Natalya A. Koehler has a Ph.D. in Curriculum and Instructional Technology and Human Computer In- teraction. Dr. Koehler is currently the post-doctoral research associate in Iowa State University’s College of Engineering-Department of Civil, Construction and Environmental Engineering.Dr. Charles T. Jahren P.E., Iowa State University Dr. Charles T. Jahren is the W. A. Klinger teaching professor and the assistant chair for Construction Engineering in the Department of Civil
Paper ID #38822Board 419: Students use their Lived Experiences to Justify their Beliefsabout How they Will Approach Process Safety JudgmentJeffrey Stransky, Rowan University Jeffrey Stransky is a PhD candidate in the Experiential Engineering Education (ExEEd) Department at Rowan University. His research interests involve studying engineering ethics and decision making and using digital games as safe teaching environments. He has published in the overlap of these topics by integrating digital games into chemical engineering curriculum to help students build an awareness of the ethical and practical implications of their
Controls laboratory at DeVry,in order to provide them with hands-on experience that they are likely to experience onthe job.Virtual Instrumentation is a current technology that is making a significant impact intoday’s industry, education and research. DeVry Institute selected LabVIEW as an goodrepresentative of this technology and is using LabVIEW in its curriculum at all DeVrycampuses in the United States and Canada. This article is a result of a research projectfor LabVIEW implementation into the Industrial Controls course. LabVIEW is also usedin the communication and physics courses. LabVIEW is one of many skills that thestudent will need as he enters today’s highly competitive job market.I. IntroductionLabVIEWTM (Laboratory Virtual Instrument
evolving technological landscape. By equipping graduates with a morecomprehensive skill set and deeper understanding of the field, it is hypothesized that they will bebetter positioned to secure higher-paying jobs and contribute more effectively to the economy.Moreover, to gain exposure to modern technologies used in the industry, students need to gettrained with the latest tools and techniques. An extension of the degree program allows thestudents to delve deeper into these modern technologies and gain hands-on experience thatdirectly aligns with industry requirements. To achieve this goal, the addition of specializedcourses and internships into the curriculum will ensure that graduates are well-prepared to enterthe workforce and excel in their
anddisadvantages of a variety of alternate energy technologies. The course topics, contents, andgoals are discussed in detail in the paper. After two offering, the AES course meets the statedpurpose of the course and has become a popular elective even though the workload and effortrequired are significant.Background Virtually all mechanical engineering (ME) programs make use of technical electives toprovide students with depth or breath in an undergraduate ME curriculum. Many of thesetechnical electives explore traditional topical subjects such as finite element analysis or HVACsystems, but some such as composite materials or nanotechnology, provide introductions to newor emerging areas of mechanical engineering. Technical electives with titles
:Clinical Immersion in a Classroom Setting (Work in Progress)," presented at the 2017 ASEE Annual Conference & Exposition, Columbus, Ohio, 2017. Available: https://peer.asee.org/27799[14] A. J. Carroll, A. J. DiMei Sr, H. O. Ozturk, and J. McCall, "Board # 2 :Integrating Medical Economic Perspectives through Information Literacy in a Biomedical Clinical Immersion Design Course (Work in Progress)," presented at the 2017 ASEE Annual Conference & Exposition, Columbus, Ohio, 2017. Available: https://peer.asee.org/27803[15] L. Denend et al., "Using an Accelerated Undergraduate Needs Finding Course to Build Skills, Inspire Confidence, and Promote Interest in Health Technology Innovation," Biomed Eng
AC 2008-2131: GEARUP: TEACHING ENGINEERING, SCIENCE, ANDMATHEMATICS TO JUNIOR HIGH AND HIGH SCHOOL STUDENTSTHROUGH THE USE OF K’NEX BRIDGESHeath Tims, Louisiana Tech University Dr. Heath Tims is an assistant professor of Mechanical Engineering at Louisiana Tech University. He received his B.S. in Mechanical Engineering from Louisiana Tech University in 2001. He received his M.S. and Ph.D. degrees in Mechanical Engineering from the University of Texas at Austin, in 2003 and 2005 respectively. His research focus is dynamic systems, modeling, and controls. He is also involved with STEM educational research at the college and pre-college level.Galen Turner, Louisiana Tech University Dr. Galen Turner
Policywas a significant factor in successful completion of the experiment. We would recommend theFair Compensation Policy to others planning similar work.Students submitted time cards for hours worked. This gave us an opportunity to teach themabout ethical and responsible time keeping, an important professional practice. We were pleasedto observe that although the students mostly worked unsupervised, they did keep honest recordsof the hours worked.Role of Teamwork and Industrial Practices in EducationThe IEEE/ACM final report on Curriculum 2001 specifically recommends incorporation ofcollaborative team projects and industrial experience [1]. Not surprisingly, projects involvingcollaborative teamwork have become an integral part of engineering and
the information in this document may not be new, but it was acquired the hard way:through empirical experimentation. One of the unique properties of this project is that it wasdriven from an Energy Industry instrumentation and control perspective. While originallyfocused on the Energy Industry, an unexpected benefit of this project was the acquisition of newknowledge in many areas including but not limited to, online teaching and learning, research anddevelopment, technology integration into academia, and human machine interface development.This is the main motivating factor in producing this document. If remote laboratories are tobecome a permanent and legitimate part of online education, we need to learn from each other’swork. It is our
Electrical and Com- puter Engineering and (by courtesy) Engineering Education at Purdue University. She holds a B.S.E.E., M.S.E.E., and Ph.D. in Engineering Education, all from Purdue. Prior to this she was Co-Director of the EPICS Program at Purdue where she was responsible for developing curriculum and assessment tools and overseeing the research efforts within EPICS. Her academic and research interests include the profes- sional formation of engineers, diversity and inclusion in engineering, human-centered design, engineering ethics, leadership, service-learning, and accessibility and assistive-technology.Prof. Brent K. Jesiek, Purdue University, West Lafayette Dr. Brent K. Jesiek is an Associate Professor in the
, University of California, San Diego Marko V. Lubarda is an Assistant Teaching Professor in the Department of Mechanical and Aerospace Engineering at the University of California, San Diego. He teaches mechanics, materials science, design, computational analysis, and engineering mathematics courses, and has co-authored the undergraduate textbook Intermediate Solid Mechanics (Cambridge University Press, 2020). He is dedicated to engi- neering pedagogy and enriching students’ learning experiences through teaching innovations, curriculum design, and support of undergraduate student research.Dr. Saharnaz Baghdadchi, University of California, San Diego Saharnaz Baghdadchi is an Assistant Teaching Professor at UC San Diego. She
reported directly to multiple VPs of Global Product Management and was responsible for a variety of products Profit and Loss that worth USD $550M. He worked over 20 industrial sectors from 80+ U.S. and global facilities. Achieved over $100M in savings for multiple LSS Enterprise CI programs. Dr. Fong graduated with his MSME and PhD from Virginia Tech. He obtained his BSME from U. of Texas-Arlington. He is an IISE Fellow, a Registered P.E. (Virginia), a ASQ-Certified Quality Engineer, a Certified Six Sigma Black Belt (Caterpillar), and a DFSS-Master Black Belt (GE Healthcare).Dr. Patrick Brunese, Purdue University at West Lafayette (COE) Patrick A. Brunese is the Assistant Head of the School of Industrial Engineering at
encounter.ConclusionBy integrating Open Science practices and tools into an undergraduate research course, studentslearned first-hand reproducible research practices. This course equipped students withfoundational knowledge of the scientific method and research lifecycle and provided hands-onexperience in utilizing digital tools for transparent and open dissemination of research outputs.While simultaneously learning about the steps to create and share research outputs, studentslearned how opening these outputs help outside researchers, collaborators, and themselves.Through research samples in Jupyter Notebooks in a reproducibility assessment, studentsuncovered insights into the practical application and impact of Open Science tools and practiceson the
sustainability. Bielefeldt is also a licensed P.E. Professor Bielefeldt’s research interests in engineering education include service-learning, sustainable engineering, social responsibility, ethics, and diversity.Dr. Chris Swan, Tufts University Chris Swan is the Associate Dean of Undergraduate Curriculum Development in the School of Engineer- ing and an associate professor in the Civil and Environmental Engineering department at Tufts University. He has additional appointments in the Department of Education, Jonathan M. Tisch College of Citizenship and Public Service and Center for Engineering Education and Outreach at Tufts. His current engineering education research interests focus on learning through service-based
valuable experience for theMercer University students participating in the MOM Belize Program, as well as obtainsufficient amounts of data during the short study period.The faculty and staff interviews included questions related to an understanding of personal andprofessional backgrounds of the interviewees, student outcomes and success, curriculum andinstitutional development, preparation and challenges, transferability and global opportunities,and collaboration and future vision. The student focus groups included questions related to anunderstanding of individual backgrounds and aspirations, resources and support, curriculum andsubject expansion, higher education and opportunities, preparation and barriers to success, andcollaboration and
Paper ID #35087Analysis of undergraduate students’ learning experience regarding handson laboratory courses using new innovated techniques of hybrid deliveryDr. MD Shahriar Jahan Hossain, Northwestern State University Dr. Hossain is currently serving as an endowed Assistant Professor in the Department of Engineering Technology at Northwestern State University, LA. He earned his PhD degree in the industrial engineer- ing area, from Louisiana State University, under a fellowship funded by EDA Program. He has 11 years of teaching, research and consultation experience in industrial and production engineering. His current
mechanical testing of 3D printed samples is an important addition to thetraditional engineering laboratory curriculum. In a rapidly evolving technological environment,3D printing has emerged as a transformative technology, reshaping the engineering andmanufacturing sectors. 3D printing has significantly impacted the manufacturing landscape dueto its cost-effectiveness, recyclability of materials, and the ability to fabricate intricate geometrieswith high resolution [1, 2, 3, 4]. The applications of additive manufacturing are widespread,encompassing fields such as medicinal delivery, aerospace, automotive systems, and construction.Fused Deposition Modeling (FDM) stands out as the most prevalent method of 3D printing. InFDM, a thermoplastic material
Washington (UW) and an Affiliate Assistant Professor in UW Sociology. She was the 2020-2021 Chair of the ASEE Commission on Diversity, Equity, and Inclusion (CDEI). She is a former Board Member of Women in Engineering ProActive Network (WEPAN) and the recipient of the 2020 WEPAN Founders Award. She has led social science research projects such as the UW portion of NSF funded Revolutionizing Engineering Departments Participatory Action Research (REDPAR) and the Sloan funded Project to Assess Climate in Engineering (PACE). She also manages program evaluations that provide actionable strategies to improve diversity, equity, and inclusion in STEM fields. This includes evaluation of NSF ADVANCE, S-STEM, INCLUDES, and IUSE projects
(ABET), National Academy ofEngineering (NAE), American Society of Mechanical Engineers (ASME) and the AmericanSociety for Engineering Education (ASEE), stress the importance of non-technical skills forgraduating engineers [2].Many engineering disciplines rely on students having a sound understanding of computer-aideddrafting (CAD) as one of the communication skills they learn while in their engineering programand often students are required to take a CAD course as part of their curriculum. To enablestudents in these programs to effectively learn CAD and see how their engineering disciplineuses it, Utah State University modified the CAD course that all students in civil, environmentaland biological engineering take. A hybrid/blended teaching
cipher mode. See Section 12.5.3 in [10] and Figure 4 for more detail. In thisexercise, we focus on the decryption of a unicast packet such as an ARP or ICMP. In Exercise 3,we focus on the AES CMAC message authentication and integrity code algorithm. WPA3 usesAES with a 128-bit key, 128-bit block size and 8 Byte MIC. Note that WPA3-Enterprise supportsthe use of AES-128 CCM and 192-bit session key with AES GCMP-256 mode. The students areto identify the wTarget, that is, the message plaintext/payload (after decryption using Wiresharkwith the WPA Temporal Key (TK) extracted from the logs and the captured 4-way handshakemessages.) Figure 4: Encryption and Authentication with CCMP using TK or GTK in WPA3.The students are also to be provided
photons to electrical output has been a topic of high interest. Opticalconcentrators have been researched to improve panel efficiency. However, undergraduatecourses that focus on the practical design and implementation of solar system starting with thepanel to end user are virtually absent in the literature. Many courses across the nation are MEcourses that focus more on solar radiation and the thermal aspect. A few EE courses devoteabout fifty percent of the course to semiconductors and the remaining to system hardware. Thefundamentals of the system components are covered in other courses in EE curriculum and nofocus on integration to solar conversion is presented. However this approach needs seriousrevision in view of the importance and
describes the redesign and implementation of a course that introduces engineeringstudents to social entrepreneurship within the context of sustainability, at the University ofPittsburgh. Throughout the semester, the course focuses on three overarching topics: the conceptof wicked problems, the concept of sustainability and climate change (as an example of a wickedproblem), and social entrepreneurship. The author took responsibility of this course in 2015, andthis paper focuses on the redesign of this course since that time.This course is an elective that is mostly taken by junior and senior engineering students of allengineering disciplines at the university. Throughout the semester, students are introduced toentrepreneurship topics, the
AC 2011-1328: ISES A LONGITUDINAL STUDY TO MEASURE THE IM-PACTS OF SERVICE ON ENGINEERING STUDENTSChristopher W. Swan, Tufts University Chris Swan is an associate professor of Civil and Environmental Engineering with additional appoint- ments in the Jonathan M. Tisch College of Citizenship and Public Service and the Center for Engineering Education and Outreach at Tufts University. Dr. Swan has also served as chair of Tufts CEE depart- ment (2002-2007) and as an officer in the Environmental Engineering division of ASEE (2001-2005). Dr. Swan’s current interests lie in the areas of waste reuse, and service-based educational efforts in the engineering curriculum. Specific efforts involving engineering education concern