learning objectives and compile evidence supporting assessment programming to maintain accreditation. Project Objective: Improve collection of data and evaluation of courses for program enrichment and accreditation assessment. Project Scope: The process being evaluated initiates with course offerings beginning in the fall semester and ends with a semester reflection and program review in the spring. Goal Statement: Develop methodology within the 12-16 weeks allotted that provides consistent data collection and evaluation of courses for program enrichment and accreditation assessment to reduce reactive measures taken to provide assessment documentation. Deliverables: Reflection Packet Template, Data Collection
Male 63% Female 37% Major Agricultural 8% Biomedical 4% Chemical 5% Civil 36% Page 24.1187.5 Computer 7% Electrical 16
Paper ID #9911The UT TRANSFORM ProjectDr. David G. Novick, University of Texas, El Paso David Novick is the Associate Dean of Engineering for Graduate Studies and Research, Professor of Computer Science, and Mike Loya Distinguished Chair in Engineering. He formerly directed UTEP’s Kauffman Campus Initiative and now serves as co-director of UTEP’s Mike Loya Center for Innovation and Commerce. He leads the College of Engineering’s Task Force on Innovation and Entrepreneurship, which includes participants from colleges across the university. Dr. Novick, who is a graduate of Harvard Law School, teaches UTEP’s course
the txt file to MS Excel or MatLab and then how toextract the individual times between arrivals and service times. Then, they check forhomoscedasticity among the data sets, estimate arrival and service rates, characterize the arrivaland service-time distributions, and compute 90% confidence intervals for λ, μ, and k. Finally,they write a one-page executive summary and publish their report online.I provide a number of self-checked exercises, as well as some discussion in lecture, of thedifferent elements of this exercise, but students need to assemble the different elements andpresent a coherent report. Because this is new to most students, the log includes redundantinformation students can use to check their work. In the example above, that
the experiments was accompanied by a theoretical development of theimportant correlations that should be considered in analyzing the data. Furthermore, theexperiments worked very well, giving reasonable agreement between the experimental resultsand the results from applying the correlations. One of these simple experiments was the drainingof a small tank through a sharp-edged orifice and the calculation of the discharge coefficient, CD,from either a steady state or transient experiment. Although the demonstration unit was veryeffective as a learning tool, the operation really worked best in a steady state overflow mode,where water from a hose was continually fed to the tank and allowed to overflow the top of thetank and into an overflow
contain several fully worked example problems thatstudents can use as a learning tool. The problems will contain the use of the actualfunctions where students only use a calculator to calculate the first three termsgiven in the trigonometric formulas.Note: The use of the actual trigonometric functions are used to show that youdon’t need a calculator, but the calculator is then used for the remainder ofthe course. The purpose of this paper is not to replace the calculator, but to 1show students that a formula can be used and this takes the mystery out of thetrigonometric functions.Future Survey Data CollectionAt this point I have had considerable positive feedback on this method throughverbal
trained andeducated in EET colleges to become future problem solvers in their own specific fields. In theirown field of specialty, when they join the professional workforce, they will be faced withdecision makings such as what is the best way of manufacturing a specific product, what is themost efficient way of choosing material for any specific purpose, what is the most energyefficient way of performing a specific process, what is the most economical way of designing abuilding while considering the optimum point of design based on inputs from different tradeengineers such as mechanical, electrical, architect, and other engineers, etc.. Students more orless learn about some optimization methods during their different undergraduate courses, but
Paper ID #41613GIFTS: Incorporating Bio-Inspiration into First-Year DesignDr. Danielle Grimes, Cornell CollegeDr. Niloofar Kamran, Cornell College ©American Society for Engineering Education, 2024 GIFTS - Incorporating Bio-Inspiration into First Year DesignIntroductionThe purpose of our first-year engineering course is to introduce students to the ABET sevenstudent outcomes: 1) an ability to solve problems (utilizing computer-aided design) 2) an abilityto apply engineering design 3) an ability to communicate effectively 4) an ability to applyprofessional ethics 5) an ability to work effectively in teams 6) an ability
engineering design. For the student, the goal is to build the strongeststructure that meets a specific set of constraints. The event is the culmination of their work –each of the bridges is tested to failure, with the strongest bridges earning cash prizes provided byFMEC. For the sponsors, the goal is to engage as many students as possible in a learning activitythat: A) requires the student to design to meet constraints, B) allows for interaction withpracticing engineers, and C) offers tangible rewards for design success.HISTORY In 1974, Charles Martin, MSUM’s director of Pre-engineering and a member of FMEC,proposed the concept of a competition as a part of the club’s E-Week activities. The competitionrules would define a set of design
well as the methodologies used to create thecurriculum and course offerings. It will also document what procedures worked well in theprocess and what did not. A unique feature of the process is obtaining input from both universityfaculty and industry professionals as to the learning outcomes/levels that program should attemptto achieve. This therefore, would maximize the student’s opportunities upon graduation byproviding them options to either continue their education at a Baccalaureate degree level or enterthe workforce with employable skills. By following the methods used in developing thisengineering technology program, it is hoped that other institutions can implement the start up ofnew and emerging engineering technology programs with
response to this need, most engineering programs containsome form of efficiency training, usually imbedded in a course such as quality control or arequired business course. An alternative to this traditional pedagogy is to recognize that studentshave an acute need not only to understand the concept of “working smarter in the right areas” butto be able to implement this concept. In keeping with the sense of creating pedagogy that isgrounded in need-based, interdisciplinary, and real-world learning, this work proposes a methodto integrate these concepts into students’ daily life. This integration gives both value andpurpose for the students to learn the material and practice it. This initial study asks thefundamental question: Do students understand
, economic and environmental and societal contextFall 2010 Mid Atlantic ASEE Conference, October 15-16, 2010, Villanova University(i) Recognition of the need for, and an ability to engage in, life-long learning(j) Knowledge of contemporary issues(k) An ability to use the techniques, skills, and modern engineering tools necessary for engineering practice3Our Response This paper proposes that engineering education will, because of logical and competitivefactors, be drawn to a strategic plan for ideal engineering professional preparation. Thatpreparation will include the goal of a student having a right job when they graduate. Moreover,it will include exposure to the professional requirements of an on-the-job engineer. Goingforward, this
an MCNP5/X project relating to the students’ capstone design project. Students are required to use their MCNP5/X results to write a simulated conference proceeding (American Nuclear Society transaction). This focus on results and publication seeds a methodology for the remainder of the two-semester capstone experience. Students become MCNP5/X5 experts using the code for feasibility studies, validation, and in some cases critical calculations for their design project. This paper discusses the MCNP5/X thread, the rationale for its methodology, an assessment of its effectiveness, and future modifications to the learning model. Key words: MCNP, monte carlo transport
7. Brainstorming/Design Matrix 8. Initial Cost Estimate 9. Project Scheduling 10. Hand Sketches 11. Computer Drawings 12. Revised Cost Estimate 13. Prototype Construction 14. Exit SurveyThe project objective is to improve a product or simplify a task and end with a prototype.Students brainstorm, as a class, to generate project ideas and then develop a matrix to quantifythe impact of the suggested projects. Most students choose projects from the sphere of theirschool lives such as wrestling mat storage; modernizing the teacher supply
7. Brainstorming/Design Matrix 8. Initial Cost Estimate 9. Project Scheduling 10. Hand Sketches 11. Computer Drawings 12. Revised Cost Estimate 13. Prototype Construction 14. Exit SurveyThe project objective is to improve a product or simplify a task and end with a prototype.Students brainstorm, as a class, to generate project ideas and then develop a matrix to quantifythe impact of the suggested projects. Most students choose projects from the sphere of theirschool lives such as wrestling mat storage; modernizing the teacher supply
response to this need, most engineering programs containsome form of efficiency training, usually imbedded in a course such as quality control or arequired business course. An alternative to this traditional pedagogy is to recognize that studentshave an acute need not only to understand the concept of “working smarter in the right areas” butto be able to implement this concept. In keeping with the sense of creating pedagogy that isgrounded in need-based, interdisciplinary, and real-world learning, this work proposes a methodto integrate these concepts into students’ daily life. This integration gives both value andpurpose for the students to learn the material and practice it. This initial study asks thefundamental question: Do students understand
Paper ID #45426Comparison of Teamwork Assessment Methods in Engineering ClassesMr. Adam Barnes, University of Virginia Adam Barnes graduated with a BS and MS in Electrical Engineering from Virginia Tech. He worked in small business and industry for 18 years before returning to Virginia Tech to teach engineering as a professor of practice. He then moved to Charlottesville and began teaching at the University of Virginia in the Electrical and Computer Engineering Department, where he has now been for 5 years. ©American Society for Engineering Education, 2025 Comparison of Teamwork Assessment Methods
their accounts on social sites.• Our team urges freshman students to use social sites to break the routine of studying and as stress relievers. REFERENCES [1] L. Barkhuus & J. Tashiro, “Student Socialization in the Age ofFacebook”, University of California, San Diego 9500 Gilman Drive, LaJolla, CA 92093, USA, 2010. http://cseweb.ucsd.edu/~barkhuus/barkhuus-chi2010.pdf [Accessed: 2nd of September 2011].[2] R. Junco, G. Heiberger & E. Loken, “The effect of Twitter on collegestudent engagement and grades”, Journal of Computer Assisted Learning,Blackwell Publishing Ltd, 2010. Available at: Rey Junco’s Blog(www.rayjunco.com)http://blog.reyjunco.com/pdf/JuncoHeibergerLokenTwitterEngagementGrades.pdf
Texas Tech University.Mr. Renato B. Rodrigues, University of Manitoba Ph.D. student in Engineering Education at the University of Manitoba.Prof. Ken Tallman, University of Toronto Ken is an Associate Professor, Teaching Stream with the Engineering Communication Program at the University of Toronto. Ken’s responsibilities include coordinating communication instruction in the De- partment of Electrical and Computer Engineering and the Department of Materials Science and Engineer- ing. ©American Society for Engineering Education, 2023 Transdisciplinary Approaches in Canadian Engineering Education: Convergences and ChallengesAbstractThe Canadian Engineering Education
the areas of problem-solving, cultures of inclusion in engineering, engineering ethics, and environmental justice.Erica D. McCray, University of Florida Dr. Erica D. McCray is an Associate Professor of Special Education at the University of Florida. Prior to joining the faculty, she served as a special educator for students with behavioral and learning disabilities in Title I elementary and middle school settings. Dr. McCray has been recognized on multiple levels for her teaching and research, which focuses on diversity issues. American c Society for Engineering Education, 2021This presentation is a narrative exploration of how three women in
course offers atremendous opportunity to bring in material relevant to engineering students at a personal andprofessional level, and demonstrates applications of skills they are learning in their quantitativecourses. This paper describes such a course taught at the University of Calgary that is structuredto motivate innovation and entrepreneurship, and to empower students to envision the positivechange they can make with skills they have acquired throughout their education. The courseconsists of over 120 students from second year to fifth year, from all disciplines of engineeringoffered at the school. The sheer number and diversity of the students required flexibility inmaterial and assessment. As such, the students were given the open prompt of
AC 2008-1264: TEACHING CONCEPT GENERATION METHODOLOGIES INPRODUCT DEVELOPMENT COURSES AND SENIOR DESIGN PROJECTSKarim Muci-Küchler, South Dakota School of Mines and Technology Karim Muci-Küchler is an Associate Professor of Mechanical Engineering at South Dakota School of Mines and Technology. Before joining SDSM&T, he was an Associate Professor of Mechanical Engineering at the University of Detroit Mercy. He received his Ph.D. in Engineering Mechanics from Iowa State University in 1992. His main interest areas include Computational Mechanics, Solid Mechanics, and Product Design and Development. He has taught several different courses at the undergraduate and graduate level, has over 30 technical
. Janna received a B.S. degree, an M.S.M.E. and a Ph.D. from the University of Toledo.John Hochstein, University of Memphis John I. Hochstein joined the faculty of The University of Memphis in 1991 and currently holds the position of Chair of the Department of Mechanical Engineering. In addition to engineering education, his research interests include simulation of micro gravity processes and computational modeling of fluid flows with free surfaces. He is a co-author of a textbook, Fundamentals of Fluid Mechanics, with P. Gerhart and R. Gross and is an Associate Fellow of AIAA. Dr. Hochstein received a B.E. degree from the Stevens Institute of Technology (1973), an M.S.M.E. degree from The
culture of engineering to be more inclusive of diverse individuals and more in alignment with current research on decision-making. With a focus on qualitative research methods, she is working to better understand the ways in which undergraduate engineering students experience design and ill-structured problem solving. Her interests also include neuroscience, growth mindset, engineering ethics, and race and gender in engineering. In general, Dr. Dringenberg is always excited to learn new things and work with motivated individuals from diverse backgrounds to improve engineering education.Prof. Annie Abell, Ohio State University Annie Abell is an Assistant Professor of Practice at The Ohio State University in the Department
their perception of whether learning about tensors helpedthem understand related course content. Of the 47 students enrolled in EGME 331, 39 chose toparticipate in the survey, and of the 43 students enrolled in EGME 438, 40 participated. Here Iwill present and discuss the results.The first thing I wanted to know—as one of those students who came out of his formal educationscratching his head—was whether my students felt that they had achieved a better understandingof what tensors were. To that end, I asked them a series of Likert scale questions, which included“Before taking this class, I understood what tensors were,” and “After taking this class, Iunderstand what tensors are.” The results are shown in Figure 2.It can be seen from Figure 2
(AAAS) Science and Technology Policy Fellowship in 2012-2013, with a placement at the National Science Foundation.Dr. Renata A Revelo , University of Illinois at Chicago Renata A. Revelo is a Clinical Assistant Professor in the department of Electrical and Computer Engi- neering at the University of Illinois at Chicago.Ms. Shannon Kristine Stefl, Clemson University Shannon Stefl is a doctoral research assistant in the Engineering & Science Education department at Clemson University. She received her B.S. degree in physics from Kent State University and her M.S. degree in physics from Clemson University. sstefl@clemson.eduMiss Stacey D Garrett, Clemson University Stacey D. Garrett is a PhD student in the School of
until the last minute to be completed. Doing poorly on the tests could result innegative attention from supervisors. It was also divulged that sharing answers “became a routineway to save time during a hectic work week.”[22] This story makes one wonder if this was thefirst time these individuals acted in such a way, or had they, even if unintentionally, learned thatthis was acceptable behavior during their formative education.If there is still any doubt about the relevance of plagiarism for engineering educators, considerthe fact that researchers have found that engineering is among the top five disciplines listed foracademic integrity issues, with 80 percent of engineering students reporting having cheated atleast once, while the rate of
- ing design from a social constructionist and social network perspective.Dr. Carla B. Zoltowski, Purdue University, West Lafayette Carla B. Zoltowski, Ph.D., is Co-Director of the EPICS Program at Purdue University. She received her B.S. and M.S. in electrical engineering and Ph.D. in engineering education, all from Purdue University. She has served as a lecturer in Purdue’s School of Electrical and Computer Engineering. Dr. Zoltowski’s academic and research interests broadly include the professional formation of engineers and diversity and inclusion in engineering, with specific interests in human-centered design, engineering ethics, leadership, service-learning, assistive-technology, and accessibility.Prof. Patrice
Paper ID #19140A Real Report from the Trenches of a PhD Dissertation: Exploring the Inher-ent ”Messiness” of Engineering Education Research Through an Audit TrailDr. Rachel K. Anderson, Clemson University Rachel Anderson recently earned her PhD in Engineering and Science Education from Clemson Univer- sity. She is now the Assistant Coordinator for Clemson’s Peer Assisted Learning program. Her research interests include cross-disciplinary teamwork, student development, and program assessment. Rachel re- ceived a M.S. in Mechanical Engineering from Clemson University and a B.S. in Physics from Baldwin- Wallace University.Dr
. Randall Davies, Brigham Young University Dr. Davies is currently an assistant professor of Instructional Psychology and Technology at Brigham Young University. His research involves program evaluation in educational settings with the general objective of understanding and improving the teaching and learning process. His research has a specific focus of evaluating technology integration, assessment policy, and educational practices. c American Society for Engineering Education, 2018 Understanding Engineering and Technology Student Perceptions: Barriers to Study Abroad ParticipationIntroductionWe live and work in a global environment that presents many opportunities and