. His research interests include Humanitarian Engineering, social justice in engineering education, global engineering education, professional engineering practice, and curriculum design.Prof. Brent K. Jesiek, Purdue University, West Lafayette (College of Engineering) Dr. Brent K. Jesiek is an Associate Professor in the Schools of Engineering Education and Electrical and Computer Engineering at Purdue University. He also leads the Global Engineering Education Collabora- tory (GEEC) research group, and is the recipient of an NSF CAREER award to study boundary-spanning roles and competencies among early career engineers. He holds a B.S. in Electrical Engineering from Michigan Tech and M.S. and Ph.D. degrees in Science
curriculum development and teaching through Peer Designed Instruction.Mr. Nathan Hyungsok Choe, University of Texas, Austin Nathan (Hyungsok) Choe is a doctoral student in STEM education at UT Austin. His research focuses on the development of engineering identity in graduate school and underrepresented group. Nathan holds master’s and bachelor’s degrees in electrical engineering from Illinois Tech. He also worked as an engineer at LG electronics mobile communication company.Ms. Maya Denton, University of Texas, Austin Maya Denton is a STEM Education master’s student and Graduate Research Assistant in the Department of Mechanical Engineering at the University of Texas at Austin. She received her B.S. in Chemical
. Page 14.668.2NCETE Teacher Professional Development Positioning of the teacher as developer of lessons facilitates coherence with otherlearning activities occurring in each teacher’s classroom. Specifically, teachers can situate theengineering design concepts into their curriculum by crafting a lesson rather than attempting tofit a pre-packaged generic lesson into an existing and, perhaps, rigidly structured curriculum.The lesson development opportunities provide teachers with an active learning experience,wherein they first experience exemplary engineering design challenges as participants and thencreate design challenges. Formative feedback was provided by peer teachers and professionaldevelopers as the teachers developed the lessons
grant period was initially four years, then extended to five, with noadditional funding.) Boise State University [enrollment 19,540 overall, 1,771 engineering],located in Boise, Idaho, is a metropolitan institution that provides affordable access to educationfor a diverse population of capable students, from National Merit Scholars seeking an urbancollege experience to non-traditional students balancing family, work and education. Most of thestudents are undergraduates and a significant portion are first generation and/or lower income.Our grant-funded initiative comprised a broad array of academic enrichment and support(internships, supplemental instruction, scholarships), curricular changes (integrated freshman andpre-freshman learning
, the value of establishing amathematical model became apparent; this proposed model is planned to account for andmeasure such phenomena. Toward this objective, introducing an expansion of the binary systemto include “depth of coverage” or emphasis of a topic is an integral component of the model.Application 2: Testing the SchemeAnother study of applying the classification scheme occurred during a National ScienceFoundation sponsored workshop at the First Year Engineering Experience Conference in 2013.During the workshop, samples from 28 different classified courses were collected and analyzed.4The study used two different methodologies, namely by course and by outcome analysis. Bycourse analysis involves the examination of the whole course
ofimprovement, many upper-division students wished the curriculum was presented in a morehands-on fashion, included more labs to complement the courses, involved more collaboration,and exposed them to more real-world applications of the material covered in class.Both upper- and lower-division students commented on the need to expose people to engineeringearlier in school and in life. Both upper- and lower-division students also commented on the lackof diversity, leaving comments such as “Engineering, as is, is a profession that attempts to beexclusionary discipline [sic]. An attempt should be made to expose underrepresentedcommunities to engineering on a personal level and portray engineering as less of a difficultscience but a fun one
aquestionnaire. The key results of the teacher focus groups were: • Instrumentalist approach to study and module choices. • High demand for accountability in marking schedules. • Studying to a perceived “expected answer”. • Confirmation that NCEA had resulted in a more modular (i.e. less integrated) approach to learning. • Identification that the new NCEA Physics Curriculum places less reliance on mathematical ability. It was now not possible to achieve a pass in an NCEA module without being able to adequately answer “explain” type questions. This represents a major departure from previous curricular practice.Predictors of SuccessThe key factors that lead to success in this course were investigated by
Communication via Self-Reflection” CHE Curriculum session) #11972 • “Technical and Professional Communication for Chemical Engineers” #13875 • “Student Led Example Problems in a Graduate-Level Advanced Transport Phenomena Course” #13944 • “Using an Article in a Sophomore Engineering
communication activities informed by industryco-curricular partners. Central to contemporary pedagogical approaches such as problem-basedlearning and entrepreneurially minded learning is an aim to engage students in authenticexperiences which integrate technical knowledge with workplace skills connected toprofessionalism, communication, collaboration, and leadership. This aim, however, is oftendifficult to incorporate into the design of engineering curricula, which frequently separatetechnical learning from “soft skills” coursework in interpersonal, professional and technicalcommunication. Recognizing this persistent divide, this paper reports on a descriptive case study[8], [9] employing a backwards design approach to integrate professional
Director of the Commonwealth Graduate Engineering Program (CGEP) in the College of Engineering at Virginia Tech. Dr. Scales also provides leadership for international programs, research computing and academic computing within the College of Engineering. She holds a Ph.D. in Curriculum and Instruction with a concentration in Instructional Technology from Virginia Tech, an M.S. in Applied Behavioral Science from Johns Hopkins and a B.S. in Computer Science from Old Dominion University.Mahnas Jean Mohammadi-Aragh, Virginia Tech Jean Mohammadi-Aragh is a Ph.D. Candidate and Dean’s Teaching Fellow in Virginia Tech’s Department of Engineering Education. She earned her B.S. in 2002 and her M.S. in 2004 in Computer Engineering
several research projects focusing on competencies- based curriculum redesign and implementation aimed to integration across curricula; increasing the re- tention rate of early engineering students; providing opportunities for STEM graduate students to have mentored teaching experiences.Dr. Mark Urban-Lurain, Michigan State University Mark Urban-Lurain is an Associate Professor and Associate Director of the Center for Engineering Edu- cation Research at Michigan State University. Dr. Urban-Lurain is responsible for teaching, research and curriculum development, with emphasis on engineering education and, more broadly, STEM education. His research interests are in theories of cognition, how these theories inform the
) process engineering, and (4) CAD/CAM. Acollaborative curriculum writing process was undertaken, in which a core set of common course-level learning outcomes was developed, and an analysis was carried out to determine whichoutcomes contributed most to meeting institutional educational objectives. This resulted in acommon core of learning outcomes serving the needs of all participating institutions. This formsthe MILL Manufacturing Competency Model (MILL Model for short). The MILL Model wasimplemented at all four institutions4. The student outcomes and competencies addressed underthe MILL curricular model are shown in Table 1. Table 1: Curricular Competencies of the MILL Model. Manufacturing Processes
AC 2008-397: ENHANCING DESIGN LEARNING BY IMPLEMENTINGELECTRONIC PORTFOLIOSMieke Schuurman, Pennsylvania State University Mieke Schuurman is an engineering education research associate with the Leonhard Center for the Enhancement of Engineering Education in the College of Engineering at The Pennsylvania State University. She received her Masters and PhD in Social & Organizational Psychology from the University of Groningen (The Netherlands). Her work focuses on the enhancement of engineering education. She is a member of ASEE and WEPAN, and actively involved in ASEE's Cooperative Education Division as their Research Chair. She has presented her work at annual conferences of ASEE, WEPAN
, and community colleges (Klingbeil et al., 2008; Klingbeil, Newberry, Donaldson, &Ozdogan, 2010; Long, Abrams, Barclay, & Paulson, 2016)—clear evidence exists to support theclaim that the WSM can be readily integrated into an institution’s curricula. For the last nineyears, Wright State has hosted annual meetings with more than 17 collaborating institutions tofacilitate in-person discussions and comparisons of local WSM implementations (NationalEngineering Mathematics Consortium, 2018). Furthermore, a published textbook of the WSMcurriculum, as well as a free online web portal featuring lecture videos, lab demonstrations, andother references serve as accessible and mobile resources for instructors and administrators toemploy in WSM
Paper ID #23200Application of Brain-based Learning Principles to Engineering MechanicsEducation: Implementation and Preliminary Analysis of Connections Be-tween Employed Strategies and Improved Student EngagementDr. Firas Akasheh, Tuskegee University Dr. Akasheh has been with the Mechanical Engineering Department at Tuskegee University since 2008. His primary interest is in the area of solid mechanics and manufacturing as well as the integration of best practices in engineering education.Dr. John T. Solomon, Tuskegee University John T Solomon is an assistant professor in the mechanical engineering department of Tuskegee
student and faculty perceptions of productive conflict. Themain conflicts that were reported in our study included conflicts of commitment, differentideas about the project direction as well as different working styles.Results from this research will enable us to rethink common models of team conflict anddevelop direct and indirect intervention strategies that can help students to better integrateemotion and intellect in engineering design and innovation.IntroductionAlthough design projects and course structures may vary, there has been a consistentattempt to integrate team experiences into the engineering design curriculum 1-5. Whilethere has been significant work that describes instructional approaches for integrating andassessing teamwork
. The roadmap consists of the curricula students engage inand the assessments used to determine if they have met certain standards. Unfortunately, not allstandards set by educational institutions offer a roadmap for curriculum development andassessment.This is particularly problematic in engineering education, because a critical component of thepractice – engineering design – has traditionally been difficult to assess. In this paper, we outlineand test an approach to addressing this problem. We examine a set of engineering designeducation standards and then propose and test a method for developing curricula and assessmentthat is closely linked to those standards.ABET Criteria for Student OutcomesIn undergraduate engineering education, ABET, Inc
first year students, the survey results showed that 75 percentof participants indicated that the enjoyment of mathematics and science, and financial rewardwere primary motivational factors in their pursuit of an engineering education31. Familyinfluences are also a factor in studying engineering; however, APS data show that nonpersistersare more likely than persisters to be motivated by family influences to study engineering32. Theinfluence of family also tends to be less important after the first year32. In the Cross-sectionalCohort, data showed a lower level of motivation to study engineering because of financialreward for transfer students than for non-transfer students29.Curriculum and Skill Development IssuesAs discussed above, the factors
AC 2012-3208: STUDENT PERSPECTIVES OF FACULTY CLASSROOMPRACTICESDr. Shanna R. Daly, University of Michigan Shanna R. Daly is an Assistant Research Scientist at the University of Michigan in engineering edu- cation, earning her doctorate from Purdue University’s Engineering Education program in 2008. Her research focuses on the investigation and application of complex professional skills, specifically de- sign ideation, innovation practices, and creative processes within engineering, outside of engineering, and cross-disciplinarily. Her research includes an emphasis on the translation of research to practice in the form of pedagogy, curriculum development, and faculty support and programming in implementing
who feel differently. Additionally, the lastquestion of this section assesses students willingness to a potential change in curriculum. Question Questions Type Identifier D1 I would be surprised if a fellow student mentioned Likert agreement discomfort with this term D2 I would feel empathetic towards a classmate who finds Likert agreement this term problematic D3 I would be accepting of using an alternate phrase if a Likert agreement classmate expressed discomfort with the use of this termTable 3: Pre-CAR and post-CAR questions asked of respondents if they answer "StronglyDisagree" or
is an important characteristic as it enables the system to evolve in response to changes within the system, e. g. the changes in relationships between agents and their resulting emergence, and to changes beyond the boundaries of the system, e. g. changes to the socio-technical landscape in which the enterprise of engineering education is embedded. Within engineering education, there are inherent links to professional practice and engineering education practice which have evolved in response to these changes. An example of this is apparent in the recent thrusts to include communication in the engineering education curriculum as a result of the inputs from industry and the profession1. One would be hard pressed to find
be the central or distinguishing activity of engineering” (p.103)1. Indeed the National Academy of Engineering reinforces this statement by describingengineering as “design under constraint” (p. 24)2. The report continues, “The engineer designsdevices, components, subsystems, and systems, and to create a successful design, in the sensethat it leads directly or indirectly to an improvement of our quality of life” (p. 24)2. And the veryessence of these statements manifests itself through the Grand Challenges of Engineering, whichinclude such challenges as “restor[ing] and improv[ing] urban infrastructure”, “prevent[ing]nuclear terror”, and “advanc[ing] personalized learning”3. Such challenges are renderedincredibly complex by deeply integrated
State, she held faculty positions at Cabrini College and the New Jersey Institute of Technology. She also held a number of positions in industry and government including an Electronics Engineer for the Naval Air Development Center in Warminster, PA and a Software Engineer at Motorola in Horsham, PA. Dr. DeFranco received her B.S. in Electrical Engineering from Penn State University, M.S. in Computer Engineering from Villanova University, and Ph.D. in Computer and Information Science from the New Jersey Institute of Technology. She is a member of ASEE and has had numerous publications in journals and conference proceedings. She is also on the curriculum advisory board for a local technical high school.Mrs. Sally Sue
15.1297.11education is not purposefully integrated into the curriculum to the extent that many wish that itwas. In many of these cases, faculty and administrators stated that although there was a strongdesire within their schools and departments to emphasize ethics in their curricula, that desire isoften not translated into a purposefully designed department- or school-wide approach. Forexample, one faculty member described a departmental state that encapsulated this issue in thecommunication channels between faculty and students: From a university, college, and departmental level there’s a lot of discussion about ethics, and I think every body’s on board. It’s an important topic, but the approach to the subject as best as I can see is very
; Telephone: (+1)979.458.0797; email:cee@economidesconsultants.com Page 13.1039.1© American Society for Engineering Education, 2008 Research on the Evolution of College Instructors’ Perspectives of Teaching and Learning Abstract This paper describes five recitation leaders’ perspectives of teaching and learning and how they evolved over the course of a semester in which they taught an undergraduate, core curriculum, natural science course, particularly designed for non-engineering majors: ENGR 101, Energy: Resources, Utilization, and Importance to Society
model- ing of educational systems, and advancing quantitative and fully integrated mixed methods.Dustin Grote, Weber State University Dustin currently serves as an Assistant Professor in Teacher Education at Weber State University and leads the higher education leadership program. He holds a PhD from Virginia Tech in Higher Education. His interdisciplinary research agenda includes graduate funding in STEM, transdisciplinary, experiential and adaptive lifelong learning, undergraduate education policies, systems thinking, organizational change, broadening participation in engineering, improving community college transfer pathways in engineering, curricular complexity in engineering, and assessment and evaluation in
highlights the need for identity to be developed and maintainedthrough the engineering curriculum. The foundational work of Gee [9, p. 99] frames identity asbeing strongly influenced by interactions with others and defines identity as “being recognized asa certain ‘kind of person’ in a given context.” The recognition as a certain “kind of person,” inthis case as an engineer, is important in identity development [1], [3], [10]–[12], andopportunities for recognition to occur must be purposefully integrated into engineeringeducation.The individualistic culture of engineering [13], paired with its current content-centric curriculum[14], [15] may not easily facilitate opportunities for the development of an engineering identitythrough recognition. An
Paper ID #11902Faculty Perspectives on Benefits and Challenges of Hybrid LearningDr. Aliye Karabulut Ilgu, Iowa State University Dr. Aliye Karabulut-Ilgu is a lecturer in the department of Civil, Construction and Environmental En- gineering at Iowa State University. Her background is in Curriculum and Instruction, and her research interests include online learning, hybrid learning, and technology integration in higher education.Dr. Charles T. Jahren P.E., Iowa State University Charles T. Jahren is the W. A. Klinger Teaching Professor and the Assistant Chair for Construction Engi- neering in the Department of Civil
’ Page 13.633.8intention to major in engineering as freshmen and their actual commitment to the major. Threeitems were developed to assess students’ level of commitment to majoring in engineering whenthey entered the institution and explore the factors that either caused doubt about majoring orconfirmation of their decision to continue with an engineering major. The data collected fromthese questions in APPLES1 showed a pattern of results in which students’ decision-makingabout their major appears to be much more fluid than what one might have assumed. Althoughthe results of these analyses are ongoing, the integration of findings from both quantitative andqualitative APS methods represents a valuable contribution and perhaps a useful model for
, organizations, policy, initiatives) of change and documenting the good, hard work required across disciplinary boundaries to achieve meaningful change in STEM ed- ucation.Ann Sitomer, Oregon State University Ann earned a PhD in mathematics education from Portland State University in 2014. Her dissertation examined the informal ways of reasoning about ratio, rate and proportion that adult returning students bring to an arithmetic review class and how these ways of thinking interacted with the curriculum. Other research interests include teachers’ professional noticing of learners’ mathematical thinking and orga- nizational change. Ann works on both the implementation and research sides of the ESTEME@OSU project.Dr