retention, and engage learners of all ages and backgrounds [40]. Through the strategicuse of infographics, educators can leverage visual literacy to enhance the educational experienceand promote a deeper understanding of complex concepts in various fields, includingengineering education [37]. In conclusion, educational infographics represent a valuable resourcefor educators seeking to enhance student learning outcomes. By harnessing the power ofinfographics and incorporating them thoughtfully into educational practices, educators can createa more engaging and effective learning environment that resonates with learners across diversesettings and disciplines.References[1] Noori, N., & Anderson, P. K. (2013). Globalization, governance, and the
level of student engagement in our extracurricular activities.References1. Abeysekera, K., Davari, S., Yue, K., Brown, E., Kent, M., Betts, P., & Meeks, J., Success through AcademicRecognition (STAR): Sustaining and Expanding UHCL and SJC TWD Computer Science Scholar Program, thethird annual Texas Engineering and Technology Consortium Best Practices Conference, Dallas, Feb. 28, 2008, pp 7-9. www.thecb.state.tx.us/index.cfm?objectid=8828378A-D358-8867-5E14BDC65C9860B92. Chun-Mei Zhao and George D. Kuh, “ADDING VALUE: Learning Communities and Student Engagement”,Research in Higher Education, vol. 47, 2006, pp 89-1093. Jolly, Campbell, and Perlman, “Engagement, Capacity and Continuity: A Trilogy for Student Success” (GEFoundation
implementing complexsystems.2 These complex systems entail multiple points of interaction characterized throughoverlapping, interdependent, and often conflicting interdisciplinary design parameters, preferences, andconstraints.1-3 Thus, the engineering design process is a complex, iterative process through whichindividuals and teams solve ill-defined, multidisciplinary problems by integrating domain-basedtechnical knowledge.1,4 Aerospace engineering, specifically, integrates technical components from manydifferent disciplines, such as aerodynamics, combustion, avionics, materials science, structural analysis,flight mechanics, optimization, and manufacturing. Thus, successful aerospace engineering designrequires multidisciplinary communication
-item factors (e.g., four [5], six [20], etc.) that eachassesses a relevant capability area. Beyond these approaches rooted in self-assessment, others havedeployed assessment instruments to measure downstream outcomes related to career achievement,typically during the early alumni years (e.g., [6 - 8]). For instance, programs have measured the extent 7to which alumni have attained positions and responsibilities related to program aims [6, 8], or,through qualitative analysis, the extent to which leadership themes are apparent in alums’ work andcareers [7]. Examples from among these career-focused assessments have also measured the extentto which respondents feel, retrospectively, that their time in
, faculty are at the very heart of the student experience. We strive to create a collaborative, inclusive, and stimulating learning environment that emphasizes care for the whole person. Faculty and staff in our department offer student support that goes beyond the classroom and extends to career counseling and mentorship. Course outcomes are regularly examined and adjusted to respond to the needs of our constituents. Faculty are committed to practicing continuous improvement through professional development activities and pedagogical research that broaden our spectrum of teaching and learning strategies. Student responses indicate that faculty-student relationships was by far the most
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
VI would not be all that interesting except that since wehave a simulation, we can now observe the signal at intermediate stages. The behavior of the productdetector is not all that interesting, since any textbook or a lecture covering the subject will elaborateon it. So I will concentrate on the method of envelope detection, which usually gets a very shorttreatment.Figure 3: The VI to demonstrate AM demodulation in action.To refresh the reader’s memory, I note that an envelope detector is a diode followed by a lowpassfilter. In the simulation, the diode is modeled by a comparator that passes only positive values. So,what happens to the spectrum of a signal after it passes through an ideal diode? Most textbooks onthe subject are silent about
the most complex problem, involving allof the various skills gained from previous work. The students are challenged to acquire themaximum number of points accomplishing various tasks while playing the Beyond Botball9game. An assortment of mechanical manipulators and control algorithms are needed tosuccessfully solve this problem. The students are free to develop any strategy that fits within thegame rules. Figure 5 shows two different approaches: the left bot uses two specialized grippersmade from Lego designed to pick up specific items; the right bot uses a large gripper to pick upnumerous objects at a time, drop them into a hopper, and then use a feeder equipped with acamera to sort the objects into bins as they fall through
retention and attrition,and culture is cited as one factor for students who switch out of engineering or choose notto enter engineering. Seymour and Hewitt31 note that “…a greater proportion of theproblems described by switchers arose from structural and cultural sources rather thanproblems of personal inadequacy.” These problems include: • Allegations of poor teaching and faculty unapproachable for help with academic problems (74.5%). • The feeling of being overwhelmed by the pace and the workload (47.0%). • Inadequate help and advice from faculty through periods of academic difficulty (45.6%). • Problems (especially financial) arising when degrees expected to be completed in four years actually take much longer
focus on the role of frustration in website usability.SHIJING LIUMs. Liu is a graduate student in the master’s degree program in Industrial and Systems Engineeringin the Russ College of Engineering and Technology at Ohio University. Her research focuses on theusability of mobile applications for older users.SERTAC OZERCAN, MSMr. Ozercan is currently a doctoral student in Computer Science at the Russ College of Engineeringat Ohio University in Athens, OH. He received his Master's degree in Computer Science through theRuss College of Engineering and Technology at Ohio University in 2010. Among his researchinterests are human-computer interaction, computer graphics, and game development.JIE ZHOU, MSMs. Zhou is a PhD student in the Mechanical and
culminating in the construction, start-up, and operation of an optical fiber factory in Suzhou, China where he remains the Chief Technology Officer. He holds a B.S. in Chemistry and M.S. and Ph.D. in Mechanical Engineering from the University of Massachusetts at Amherst. c American Society for Engineering Education, 2017 Green Energy Tent-Light with GPS Locator: A Real Product for a Real Customer C. J. Gray, G. D. Grabovetz, K. A. Gabrielsen, S. R. Lecin, and P.R. Stupak Department of Science and Engineering and Computer Science Raritan Valley Community College, Branchburg, NJAbstractA Team of four Raritan Valley
challengesby providing students with hardware and hands-on experiences through the development of a take-home lab experiments kit. As a core requirement of the course, students designed and assembledthe kit themselves, enhancing their engagement with real-world electronics practices.The project involved students designing a low-cost Printed Circuit Board (PCB) that would hostall the electronic components required for both lab experiments and final projects. The initiativebegan with an introduction to the fundamentals of PCB design, production requirements, andindustry standards. Upon completing their designs, the PCBs were manufactured in China anddistributed to the students. Students living off-campus received the kits by mail, while otherscollected
, because thecourse under study has already been heavily infused with active-learning elements, the question of whatimpact flipping the course will have may be framed specifically in the context of what incrementalbenefit does flipping provide beyond the addition of active-learning.Literature ReviewThe flipped classroom is, according to EDUCASE, “a pedagogical model in which the typical lecture andhomework elements of a course are reversed” [7, p1]. Låg and Sæle more pragmatically define themethod as “a teaching model that moves most of the teacher-centered instruction out of the classroomto free up time in the classroom for more student-centered learning activities” [6]. Lo and Hew definedthe general design of a flipped course as one involving pre
. Monte has a B.S. and a M.S. in environmental engineering from Michigan Technological Univer- sity.Dr. Brett Hamlin, Michigan Technological UniversityMr. Douglas E. Oppliger, Michigan Technological University Douglas E. Oppliger is currently a Senior Lecturer at Michigan Technological University. His work at this post was preceded by eleven years as a K-12 math/science teacher Michigan’s public schools. He is a Professional Civil Engineer with several years experience working in the marine construction industry. His most recent efforts have focused on using project-based learning to recruit a diverse body of K-12 students to STEM studies beyond high school
a broad spectrum of learning preferences. ©American Society for Engineering Education, 2025 Work-In-Progress: Belonging in Engineering? A Grouping Strategy Comparison1. Introduction and PurposeThis work-in-progress paper investigates how grouping teams by specific characteristics couldaffect feelings of belonging in engineering. A national (US) focus on broadening theparticipation in engineering endeavors to move beyond the commonly reported bachelor’sdegrees proportions awarded to women and to minorities of all genders [1]. For instance, ASEE-reporting institutions in 2020 noted the bachelor’s degrees awarded, without regard to majortype, were 23.5% female and 29.2
reactor is to remove the lightreaction product hydrogen through the membrane and thus drive the reaction beyond theequilibrium constraint set by the reaction conditions. This reactor consists of a stainless steel shell with a Platinum coated ceramic membranetube. The ceramic membrane is obtained from US Filter with a pore size of 5nm. The tube wascoated using a choroplatinic acid process. The reactant and product concentrations will bemeasured using an HP 6890 Gas chromatograph and HP 5973 Mass spectrometer. Summary Through the support of NSF and several industries, multidisciplinary student projectshave been initiated by Chemical and Civil/Environmental Engineering and Chemistry facultythat challenge student teams to solve
positions, committees, departments, and divisions to cultivatepositive school and classroom environments through the development of diversity, equity, andinclusion (DEI) initiatives. Seeking to address centuries-old systemic inequities, professionalsinvolved with these DEI initiatives work to both identify and rectify issues of exclusion withinhigher education. This trend has not escaped engineering education. ASEE’s Diversity Pledgehas over 230 signatories who commit to “ensuring that our institutions provide educationalexperiences that are inclusive and prevent marginalization of any groups of people because ofvisible or invisible differences” [2]. To be considered a top engineering program today, collegesof engineering must not only have
systems from inception through design, development, and production. His skills are included but not limited to operations research, analytical/statistical analysis, trade studies, new product introduction including gates and design reviews processes, risk and oppor- tunity management, reliability, availability & maintainability, and safety analysis, and complex project managementDr. Ghazal Barari, Embry Riddle Aeronautical University Ghazal Barari received her PhD in mechanical engineering from University of Central Florida. Her re- search was focused on combustion modeling of promising biofuels in order to find a suitable substitute for fossil fuels. She started her career as a tenure track assistant professor in
effectiveness of the partnerships indeveloping a sustainable local engineering program. The information developed through thecase study should illustrate the effects and efficacy of educational leadership applied to thepartnership efforts. This paper details the case study framework, creates a structure for thecurrent partnership participants, and introduces the local engineering program history.Introduction In the Antelope Valley (AV) of California, a unique partnership developed in 2004 to addressregional industry needs for hiring engineers from ABET accredited programs. It creates aninteresting and necessary case study on the application of leadership to a social entrepreneurialenterprise1 that is intended to develop a sustainable and regionally
course description in the catalog says: A problem-solving introduction and thorough exploration of word processing, spreadsheet management, data analysis, graphical display of data, and multimedia presentations. The problem-solving approach also aids students in their specific majors through software applications requiring major-specific professional communication skills in written, graphical, and presentation forms.Before doing the course transformation, the course objective was written as follows: Effectively use Microsoft Word for professional word processing and written technical communication. Effectively use Microsoft Excel for spreadsheet data creation, data organization, numeric
through the perspectives of variousstakeholders. Starting with local projects, subsequent assignments involve projects based in theglobal context. In this way, students move from community service projects to the exploration ofglobal implications of engineering practice. This process helps them to develop an understandingof global citizenship.The Institutional ContextThe University of British Columbia (UBC) is the leading university of the Province of BritishColumbia, and it has been consistently ranked among the top 5 universities in Canada and top 40universities in the world. This four-year university serves about 60 thousand students in a broadrange of programs, from undergraduate liberal arts and sciences to professional programs,including
underrepresentation. What is needed is more connection between and among thesiloes that exist and between research and practice, whether it is in the form of individuals whohave the capacity to span the areas, or through more connection in professional venues. In thecase of Women and Minority Engineering Programs, these disconnects can represent a barrier toeffective program implementation. They also certainly make it difficult for those new to diversitywork to become aware of the “state of the art.”In the ecosystem spanned by the many areas of activity are practitioners who work to implementprogramming that will have the effect of increasing diversity, equity, inclusion, and belonging inthe engineering and computer science student population and beyond
the movie(s) by holding discussion sessions (held by the instructor, assistant, oramong students themselves) for those videos that had a pertaining assignment. Moreover,the instructor provided detailed assignment questions and requirements that directlytargeted the course objectives covered by the watched videos. This role was reflected Page 23.1193.5slightly by the students’ perceptions to the importance of holding post-video discussion sessions and by their performance on the written assignments. However, the analysis of this role will not be analyzed in depth in this study as it is beyond the main scope. Before responding to the questionnaire
through curiosity.[6]Problem based learning is another pedagogical theory that focuses on developing problem-solving skills, a key skill for engineers. This theory highlights the importance of knowledgeframeworks. A knowledge framework is a structured method to identify, analyze, and solvenovel complex problems. [7] Knowledge frameworks are important because they connect piecesof information together within the context of the bigger picture in which the problem resides.Experts use knowledge frameworks to take information and apply prior knowledge to a new butsimilar situation to solve new problems.Given these effective learning theories, the question becomes, how can they be utilized to createa textbook tool that educators can use to teach
University, and a PhD in Educational Technology from Purdue University. His research interests include spatial ability development, virtual and augmented reality applications, product data and lifecycle management, and innovative classroom methodologies.Dr. Esteban Garcia Bravo, Purdue UniversityDr. Gary R. Bertoline, Purdue University, West Lafayette Dr. Gary R. Bertoline is the Dean of the College of Technology and a Distinguished Professor of Computer Graphics Technology and Computer & Information Technology at Purdue University. He earned his PhD at The Ohio State University and was on the faculty in the College of Engineering for 3 years before coming to Purdue University in 1990. From 1995 through 2002, Gary served
words, the leaderexpects from his/her followers to perform on the given tasks [4], [5]. The transformationalleadership focuses more on the people skills side. Its characteristics include being visionary,charismatic, inspirational, and capability of influencing followers’ values and attitudes in apositive manner [5]. There is a strong personal influence of the leader in transformational style.The leader is expected to be a role model for his/her followers and bring their best out of them.The followers are expected to go beyond their self-interests for the good of the project.Today’s AEC industry places big emphasis on the issue of collaboration and fragmentation isless favored. The main reason for that is the growing popularity of sustainable
thetraditional Navajo worldview? The intent of these research questions is to begin to consider how Navajo students may besupported in learning engineering through curricula that is contextualized to a Navajo philosophyof learning, logic, and reasoning. This study addresses these research questions byconceptualizing the traditional Navajo philosophy of learning used to direct and formulatepedagogy in K-12 and higher education on the Navajo Nation. To explicate such information, theauthors relied upon documentation and empirical work published by Navajo scholars andeducators as well as on education documentation by and for Navajo schools. One of the authorsalso took an on-site Navajo culture course at a Navajo higher education school, where
disciplines thatlists a comprehensive, discipline-specific suite of key resources, and enhancing discovery ofOER in NAMOE. In this work-in-progress article, in addition to sketching out some of theresources we plan to create and share, we will discuss the formation of this group and reflect onhow it has impacted our work. By combining our efforts, we will enhance teaching and researchfor NAMOE programs, deepen our expertise in NAMOE library services, and present aframework for other specialized librarian communities to follow.IntroductionEngineering librarians throughout the United States, Canada, and beyond strive to support theirpatrons, from building collections to developing specialized instruction to helping students andfaculty alike succeed
. Newell, A. J. Marchese, R.P. Ramachandram, B. Sukumaran and R. Harvey, “MultidisciplinaryDesign and Communication: A Pedagogical Vision”, International Journal of Engineering Education, Vol.15, No. 5, pp.376-382, 1999. 2. K. Jahan, R.A. Desseau, R.P. Hesketh, A, J. Marchese, R.P. Ramachandran, S.A Mandayam and J.L.Schmalzel, “Engineering Measurements in the Freshman Engineering Clinic at Rowan University”, ASEEAnnual Conference and Exposition, Seattle, Washington, Session 1326, June 28 – July 1, 1998. 3. A. J. Marchese, J.A. Newell, R. P. Ramachandran, B. Sukumaran, J.L. Schmalzel and J. Marriappan,“The Sophomore Engineering Clinic: An Introduction to the Design Process Through a Series of Open EndedProjects”, ASEE Annual Conference and
(Fundamentals of Materials Science) that lays thefoundation for the mechanical and capstone design courses. Thus, it is paramount to the facultythat through this course, students gain a solid understanding as to how the materials selection andprocessing will ultimately affect their final product. Granta CES EduPack is a comprehensivematerials science software program that is available to the students at the junior and senior levelwithin the ME program. In past offerings, CES EduPack has been introduced at the end of thecourse at a basic level to introduce the students to concepts of materials selection. Prior studentshave not considered the software as a tool for materials selection in their mechanical design andcapstone projects in the past, likely