with the Center as a postdoctoral researcher.Ms. Aparajita Jaiswal, Purdue University at West Lafayette Aparajita Jaiswal is a Ph.D. student at Purdue Polytechnic at Purdue University, West Lafayette. Her research interests are in educational technology, embodied learning, student engagement and motivation in active learning environments.Mr. Shawn Farrington, Purdue University Shawn Farrington is a Senior Lecturer in the Polytechnic Institute at Purdue University. He co-coordinates a first-year Design Thinking program and teaches several of his own sections. Shawn is also an Educa- tional Psychology Ph.D. candidate at Purdue. His research interest includes student motivation in core college courses
to foster real-world relevance,motivation, and goals for students beginning as early as possible in their undergraduate study.This entrepreneurial foundation helps provide context and relevance to foundational material,and fosters independence and personally relevant vantage points on coursework and the whole ofthe major. Here we report on our work-in-progress and initial formative assessment ofperformance and motivation of students in the entrepreneurial modules.2. Introduction and JustificationOur nation needs engineers that will drive innovation and leadership. Colleges and universitieshave outstanding undergraduate programs to train these rising engineers. Students receive criticalelements of integration, real-world connection
, therefore the percentages reported below must be interpreted cautiously.Taxonomy and Tool DesignDeveloping the taxonomy and tagging the assessment tools was conducted through a four-stagecoding process (Figure 2). In Stage 1, the team used the data from the interviews, cards, literaturesearch, and focus group to begin a preliminary taxonomy of “tags” that might help facultynavigate assessment tools. In Stage 2, using this taxonomy, the research team coded a sample ofassessment tools deductively with these tags, first coding each item by common assessmentterms (e.g., formative/summarize and direct/indirect) as well as terms that we anticipated wouldbe of interest to users such as class size (e.g., small/large) or level of expertise required. Theteam
issues6. Programs that havesought to emphasize this approach have ranged from small-scale graduate programs7; todepartmental8; to large-scale multi-institutional efforts9. Successful programs supplementtraditional engineering science with practical experience in solving real problems, developing thesystems, IT and business skills.2.2 Interdisciplinary EffortsIncreasingly, such experiential learning involves working with multiple disciplines10. Manyuniversities, encouraged and supported by industry, now offer capstone senior design projectsperformed by teams composed of varying engineering disciplines. More recently, the teams forsuch projects are being expanded to include business disciplines, IT disciplines, and sciencedisciplines. Industry and
national research infrastructure to explore the use of game data for educational research and learning engineering approaches for educational media.Prof. John M. Pfotenhauer, University of Wisconsin, Madison Professor John M. Pfotenhauer earned his BA, MA, and PhD degrees in physics from St. Olaf College and the University of Oregon in 1979, 1981, and 1984. For eight years he conducted research as part of the Applied Superconductivity Center at the UniversitArganthael Berson, University of Wisconsin, MadisonLuke Swanson, University of Wisconsin, Madison ©American Society for Engineering Education, 2024 WIP: Developing a virtual laboratory for instruction and fine grained assessment of
used to compare the effect of different teaching methods. In addition, this sameinstrument or portions of it can be offered at later times in the curriculum to measure retentionand reinforcement from other courses. This concept-based testing approach is useful to examinethe overall effectiveness of the circuit component of a curriculum and could thus be used as partof the continuous self- improvement process required under the ABET 2000 rules.1. IntroductionIn recent years, in response to the pressures from both industry and academic accreditationbodies, higher education institutions are incorporating more and more student learning outcomesand assessment techniques in their educational programs and courses. Student learningoutcomes
: The Role of TerrapinSTRONG in Fostering a Sense of Belonging and Sociocultural Competence in New Engineering StudentsAbstractThe purpose of this work-in-progress paper is to describe the development and assessment of anew onboarding program designed for all incoming first-year and transfer engineering students atthe A. James Clark School of Engineering (Clark School) at the University of Maryland.TerrapinSTRONG has the following overarching goals: ● Cultivate a sense of community, sense of belonging, and connectedness amongst students in the Clark School; and ● Develop an appreciation for and understanding of diversity and inclusion.There are several components and attributes of TerrapinSTRONG in which incomingengineering
through a summer program at thecompletion of their freshman year with one-on-one mentoring with faculty members for thatsummer, their sophomore year, and the summer after their sophomore year. The first offering ofthis program occurred during summer of 2009 with three engineering faculty members selectedto provide guidance to four freshmen. The students had the opportunity to not only work on theirprojects, but also to learn about projects that other students and faculty were doing in the basicsciences. This paper will present the early results of this program, both for the summer portionand the on-going mentoring relationships. Assessment methods include student performance intheir sophomore classes and qualitative assessment of student
Assessing Changes in Student Attitudes and Knowledge in an Engineering for Educators Class William Jordan, Bill Elmore, Kelly Crittenden, Laura Wesson, and Norm Pumphrey College of Engineering and Science Louisiana Tech University Ruston, LA 71272ABSTRACTThe authors have created and taught for the past five years a course in Engineering ProblemSolving for Future Teachers. This is taught to pre-service teachers as a physical science course.Most of them take it during their sophomore year. While it is open to all education majors, mostof the students will eventually teach in elementary or middle schools.The authors have
in introductory design and process analysis courses attwo universities. Our research questions were: (1) do we see changes in students’ problem-solving during the introductory chemical engineering design course? (2) Does the assessmentprovide reliable measures of specific decisions associated with expert problem-solving whenadministered in a low-stakes, pre/post format that is typical for inventories of conceptualunderstanding in biology and physics?Methods:Data consisted of student responses to the problem-solving assessment collected fromintroductory chemical process design courses at two large research universities. At University 1,the course covered the basics of mathematical and graphical analysis of chemical processes,dynamic scaling
tools. Students are intimately connected witheach other’s personal lives and are utilizing their natural tendencies to form intricate personalnetworks. It is these networks that can be used to enhance the classroom experience providedthat it is done appropriately. For example, the use of feedback and commenting can be used tohelp strengthen a shared experience and form a bond around a lecture topic.This paper introduces an in-class activity, referred to as the Michigan Lecturer Competition, thatis targeted at large, introductory engineering courses, but can also be used in small classroomswith similar effectiveness. The goal of this in-class activity is to incorporate a competition alongwith a collaborative atmosphere into the regular classroom
ClassesIntroductionIn recent years, engineering programs have experienced an increase in the number of studentsadmitted due to the growing demand for young Engineering professionals. Lower divisionengineering classes, offered to students from multiple engineering disciplines, have been facingchallenges to accommodate a large number of admitted students. Even though such courses maybe offered in numerous sessions every semester, a ratio of one instructor to 100+ students istypical in these classes. The large class size and lack of support available to students in theseclasses contribute to high failure rate and significantly lower the retention rate. The CSU’s“Graduation Initiative 2025”, started 2015, has identified "student support services," such astutoring
interesting case is illustrated by Krupczak et al. 12 ,13 where concept maps are used tocommunicate major aspects of technological systems to non-engineering students with limitedbackground knowledge. Castles and Lohani 14 present an example of building a comprehensiveconcept map and an appropriate concept inventory to implement concept-inventory-drivenanalysis of student knowledge in a large freshman mechatronics course unit. A Diagnostic andRemedial learning system is introduced by Acharya and Sinha 15 to help pinpoint the exactconcept where the student is deficient. An effective role of concept mapping in teaching, learning,and assessment in Power Electronics is described by Raud et al. 16 . Hwang et al. 17 show that acomputerized collaborative
Paper ID #20575Work in Progress: Curriculum Revision and Classroom Environment Re-structuring to Support Blended Project-Based Learning in First-Year Gen-eral Engineering Laboratory CoursesProf. Brandon B. Terranova, Drexel University Dr. Terranova is an Assistant Teaching Professor in the College of Engineering at Drexel University. In his current role, he is the lead instructor for the freshman engineering program, and oversees activities in the Innovation Studio, a large-area academic makerspace. He has taught and developed courses in general engineering and mechanical engineering at Drexel. Prior to Drexel, he has taught
Fall 2008 Fall 2009 Fall 2010 Fall 2011 Fall 2012 Term With over 100 alumni in four short years, a large number of graduates have been hired byregional companies. This has had a positive impact on the economic development of the region.It should also be noted that a number of students take advantage of internships in this program.Some of these internships have resulted in small grants given to faculty/students by localcompanies to solve their technical problems. This program has also resulted in students/facultyhaving joint publications and scholarly work. With the unexpected large growth of the program,more resources need to be allocated to the
Paper ID #42769Engineering Research in Transition: Assessing Research Behavior while Adaptingto Access Changes in Library ResourcesHannah Rempel, Oregon State UniversityAdam Lindsley, Oregon State University Adam Lindsley is the Engineering Librarian at Oregon State University. He teaches graduate research ethics, science/information literacy for undergraduates, and library research skills for both. Research interests include information literacy, data management, photogrammetry, pedagogy, and learning technology.Taylor Ralph, Oregon State University ©American Society for Engineering Education, 2024
psychological wellbeing. ©American Society for Engineering Education, 2024 Work in Progress: Real-Time Ecological Momentary Assessment of Students' Emotional State in StaticsAbstractThis paper/poster shares the initial findings of an Ecological Momentary Assessment (EMA)study conducted in an undergraduate engineering mechanics course (Statics) at a 4-yearuniversity. Like many early undergraduate engineering courses, Statics is notorious for highattrition and often stifles students' subsequent persistence in engineering programs. Theobjective of the study described herein is to identify links between students' self-efficacy,motivation, emotional states, and other factors that may serve as early
Paper ID #9666Impact of Computational Fluid Dynamics use in a First-Year EngineeringResearch Design Project on Future Performance in Fluid MechanicsNicole L Hird, Ohio State University Nicole Hird is a 3rd year Biological Engineering student at The Ohio State University in Columbus, Ohio. She has been an undergraduate teaching assistant for the Fundamentals of Engineering for Hon- ors program since her 2nd year, and worked closely with the development of CFD teaching materials accompanying the microfluidics and nanotechnology research-design project.Dr. Deborah M. Grzybowski, Ohio State University Dr. Grzybowski is a
Paper ID #22007Dr. Beth A. Myers, University of Colorado, Boulder Beth A. Myers is the Director of Analytics, Assessment and Accreditation at the University of Colorado Boulder. She holds a BA in biochemistry, ME in engineering management and PhD in civil engineering. Her interests are in quantitative and qualitative research and data analysis as related to equity in education.Dr. Jana Milford, University of Colorado, Boulder Jana B. Milford is professor of mechanical engineering and faculty advisor for the Engineering GoldShirt Program at the University of Colorado at Boulder. She holds a Ph.D. in Engineering and Public Policy from Carnegie Mellon University and a J.D. from the University of Colorado School of Law. Her
Through Social Styles Assessment." In Proceedings, American Society for Engineering Education Annual Conference and Exposition, June.[2] Teamwork. (n.d.). In Business Dictionary online. Retrieved from http://www.businessdictionary.com/definition/teamwork.html[3] Williams, K. L. “What Is Team Dynamics?” (14 June 2011). Retrieved from http://www.livestrong.com/article/354170-what-is-team-dynamics/[4] The Accreditation Board for Engineering and Technology. (2011). Criteria for Accrediting Engineering Programs. The Engineering Accreditation Commission. Retrieved from http://www.abet.org/uploadedFiles/Accreditation/Accreditation_Process/Accreditation_Documents/Curre nt/eac-criteria-2012-2013.pdf[5
thisend, students are asked to provide a self assessment, via a survey of their progress in keyABET areas which were part of the course. Survey results from the three years of thecourse that is being discussed in this paper are provided in Table 1 (on the next page).This data is used to assess if there was a difference in the student’s perception of thecomponents of this course. While the course’s previous curriculum addressedcompetency in the discipline, it lacked components that would allow students to criticallydesign and analyze an open ended problem, to cooperate with one another and, in theprocess, learn effective communication skills. However, by introducing a design projectthat places students into groups of 4-6 that are both diverse in
audience he co-authored a book on security literacy and has given numerous talks on security. His current funded research is targeted at developing robust countermeasures for network-based security exploits and large scale attack simulation environ- ments and is the director of the Internet-Scale Event and Attack Generation Environment (ISEAGE) test bed project. He has given over 75 presentations in the area of computer security and has testified in front of the U.S. Senate committee of the Judiciary on security issues associated with peer-to-peer networking. He has served as an ABET program evaluator representing IEEE for five years. He is a Fellow of IEEE and received the IEEE Educational Activities Board Major
engineering) in the 2004-05 academic year and the second implementation isbeing offered to five hundred Track A engineering students in the 2005-06 academic year.Assessment of course and curriculum renewal has become a vital issue in engineering educationand the faculty team that implemented the STEPS curriculum has developed an assessment planto collect data with which the curriculum might be evaluated. One key element of the assessmentplan is student learning.In order to evaluate the degree to which the program has affected student learning, the twohundred students who began the program in fall 2004 are being tracked and their performancesin subsequent courses are being studied. One important sophomore course is ENGR 221 Staticsand Dynamics. ENGR
landscape ofPeducation, summative assessments, often called labs, are assigned on a weekly basis to students. The goals of these assessments are often to reinforce and to evaluate mastery of the concepts taught in the course. Upon graduation, students are tasked with programming complex projects. A key aspect of a CS student's success in the real world is their ability to develop complex software in professional IDEs (integrated development environments). In this paper we describe a new and powerful labs environment that enables students to master their skills in software development through a cloud-based IDE with support for over 50 programming languages. This labs environment supports an auto-grader and
formativefeedback to prepare for summative assessments. First, students receive utility-focused feedbackthat is limited both in quality and quantity. The feedback often pertains to a small section of thelearning load and is delivered when course facilitators and instructors have completed manuallygrading the large number of submissions. Second, students are compelled to selectively study themost important information. Third, they are evaluated on a minute, highly specific, or arandomly selected piece of the learning content, which may not be a reliable indication of thelearning ability or performance. Fourth, given that summative exams typically include contentfrom frequent formative assessments, students are disadvantaged in that they may be
- ment. Through being a teaching assistant and joining student organizations, he developed an interest in psychology and Affective Computing. Currently, pursuing the Doctoral degree in Engineering Education at Utah State University with focuses in self-regulated learning in engineering design.Dr. Oenardi Lawanto, Utah State University Dr. Oenardi Lawanto is an associate professor in the Department of Engineering Education at Utah State University, USA. He received his B.S.E.E. from Iowa State University, his M.S.E.E. from the University of Dayton, and his Ph.D. from the University of Illinois at Urbana-Champaign. Before coming to Utah State, Dr. Lawanto taught and held several administrative positions at one large private
engineering. Recommendations for improvement focuslargely on the specific language of the project description that was handed out to the students.Introduction Freshman engineering programs vary greatly at different universities and are constantly atopic of debate for educators seeking to inspire, excite and educate the next generation ofengineers. The demand from industry is to provide engineers that are not only technicallycompetent, but that can thrive in a group environment and lead a team to design a better product.The challenge for educators then, is to introduce more design within socially relevant contextsinto their curriculum starting at the freshman level without decreasing student retention. Thedilemma is in introducing design
program inentrepreneurship. A call for interested parties was put out to the University. The resultwas a committee made up of two engineers, one Small Business and Technology Page 9.713.1Development Center (SBTDC) director, and several business school professors. TheProceedings of the 2004 American Society for Engineering Education Annual Conference & Exposition Copyright 2004, American Society for Engineering Education Session 2395interdisciplinary faculty committee was charged with exploring the potential for aprogram in entrepreneurship. At
XRoads Research Group, the Global Engineering Program and the Office of Institutional Research, Assessment, and Effectiveness. He received a Bachelor’s degree in civil engineering from Florida State University and a Master’s degree in environmental engineering from Purdue University.Cole H. Joslyn, Purdue University, West Lafayette (College of Engineering) Cole Joslyn is a Ph.D. candidate in the School of Engineering Education at Purdue University. His re- search interests include: professional formation of engineers; interdisciplinary engineering design for rec- onciling the social and technical nature of engineering/engineering education; transformative/emancipatory learning for humanizing engineering education
seconddesign) because the user only interacts with the small inertia of the cursor itself (a magnet).Compared to the first design, the electro-magnetic forces need only act over a small range ofmotion since the macro-manipulator provides the large scale positioning of the cursor. Thisshould permit higher forces and control stiffness. Engineering analysis and experiments willdetermine which design provides the greatest range of cursor stiffness.The preferred haptic device will be integrated with the interactive simulation environment. Atouch-screen tablet will dock with the Hapbot frame G in Figure 4. Users will drive virtualmechanisms through the haptic cursor and feel the forces of constraint, friction, and inertiacomputed by the interactive