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
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
relationship to transdisciplinarylearning or integrated STEM education [16, 17].All of these studies combined with the need to improve students’ performance in STEM relatedfields provided a window of opportunity to develop a training program dedicated specifically toenhancing their mental abilities needed in a variety of STEM disciplines. Our Mind FitnessProgram© is a perfect example of the new convergence education concept as it transcends asingular discipline curriculum to address fundamental aspects of STEM education. It has beencreated to prepare the participants for STEM careers in general by stimulating their spatial skills,3D visualization, abstract thinking, analytical abilities, pattern recognition skills, memory,attention to detail, and
an online survey instrument that was electronically distributed to employersstatewide. The information, which was collected over the Summer of 2009, demonstrated anunmet need by industry in the state for graduates with the ability to apply computer andengineering skills to business5 and are discussed further in the Results Section of this paper.In the December of 2009, a second workshop with community college computer and informationtechnology faculty was held during the Third Annual CCCDC to report back on progress of theICET degree and to continue to receive input and feedback on the curriculum. In January 2010,an articulation meeting was held to evaluate each community college's courses and learningoutcomes and to map them to the ISU ICET
even apiece of electric wire is considered a mystery in an unknown territory. Although all thestudents are required to take courses like Networks and Electronics, many managed to resetthemselves quickly. One strategy of Rowan Mechanical Engineering is to keep exposing thestudents with the subjects by integrating them into the curriculum and keep refreshing theirmemories with topics that are interested to them. We have developed or modified severalcourses under this strategy, such as the introduction of a new course Mechatronics andimplementation of many hands-on projects (called Junior/Senior Engineering Clinics) co-sponsored by the department of Electrical and Computer Engineering. Among thesepractices, one successful approach is to build
AC 2010-2176: DEVELOPMENT OF A THERMAL SYSTEMS COURSE FOR APOWER ENGINEERING TECHNOLOGY PROGRAMJorge Alvarado, Texas A&M University Dr. Jorge Alvarado is an assistant professor in the Department of Engineering Technology and Industrial Distribution at Texas A&M University. He teaches courses in the areas of thermal sciences, fluid mechanics, and fluid power. Dr. Alvarado’s research interests are in the areas of nanotechnology, micro-scale heat transfer, electronic cooling, phase change materials, energy conservation, and use of renewable energy in buildings. He received his BS degree in mechanical engineering (1991) from the University of Puerto Rico at Mayagüez; MS (2000) and PhD
(1989) has been incorporated into the course to foster learningoutside of engineering design. The knowledge, skills and attitudes imparted in this book andsupporting materials will be referenced in the remainder of this paper as Seven Habits.Freshman Design Class OverviewThe course Introduction to Design is an Engineering Mechanics course required for mostfreshmen engineering students at Rose-Hulman. The 10 week course is two quarter credits,meeting once a week for 3 successive class periods. Each engineering department that requiresthe course offers at least one section targeted to their own students. There is no coordination ofthe course between disciplines, so each department defines the course makeup and activities tomeet their curriculum
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
AC 2010-312: EXTENDING LEAN MANUFACTURING SYSTEMS THROUGHIMPLEMENTING MOBILITY (A CASE STUDY)Mohamed Gadalla, Central Connecticut State University Dr. Gadalla is currently an assistant professor in the Mechanical Engineering Department at Central Connecticut State University. Dr. Gadalla has a Ph. D. in Mechanical Engineering from the University of Western Ontario in Canada. He graduated with honor from Cairo University with B.Sc. in Mechanical Engineering followed by a Master degree (M. Sc.) from the same university. He served as a research engineer and visiting scholar in several universities in USA, Canada, Germany, and Egypt. He also severed as a program coordinator for the computer Integrated
views. Spring 2016 Mid-Atlantic ASEE Conference, April 8-9, 2016 GWUV. References1. Lumsdaine, E. and Lumsdaine, M. (1995). “Creative problem solving,” IEEE Potentials, vol.13, no.5, pp.4-9.2. Byrne, Edmond P., Desha, Cheryl J., Fitzpatrick, John J., and Hargroves, Karlson (2013). “Exploring Sustainability Themes in Engineering Accreditation and Curricula.” International Journal of Sustainability in Higher Education 14 (4), pp. 384 – 403.3. Cioffi, N., Kulturel-Konak, S., and Konak, A. (2014). “Anything is possible” — Teaching Entrepreneurship in an interactive K-12 workshop,” IEEE Integrated STEM Education Conference (ISEC), pp.1-5.4. Kulturel-Konak, S., Vance, K., and Larson, J. B. (2016). “Teaching
Deana DiLuggo is an Assistant Professor of Educational Leadership in the School of Education at the University of Bridgeport in Bridgeport, Connecticut. Her research has focused on stress and resilience in secondary teachers. She taught high school science for eight years, served as a science curriculum specialist for two years, and as a principal for three years. She has spent the last two years as an adjunct professor in teacher education and was recently appointed as an assistant professor in a hybrid Ed.D. program at the university level. ©American Society for Engineering Education, 2024 Self-evaluation of the Introduction to Scientific Research Course Design Based on the
resolution. Once an error was integrated into thesystem, it is tedious to find and correct. This is amplified because Patran doesn’t allow for thereversal of more than one step. It would be preferred if a step-by-step manual was developed togive the best way to approach the bridge model.”“The most difficult part of the class project was the entire model. Due to its complexity and sizethere were a large number of nodes. Trying to determine the exact nodes to RBE2 to one anotherwas very difficult.” 3) Comment on the quality of the laboratory manual and class instruction, and make suggestions for improvement.“The lab manual needs to be in color, with revisions in grammar of the content and updatedphotos for instructional purposes. ““My
plans, some renderings, and a great deal of information about the building may be foundon the web site at http://ilc.queensu.ca/News/gallery.shtml . What follows is a summary of themajor features.(a) teaching studio The studio approach has been the norm in schools of architecture, where the teaching of theoryand its application to design have long been well integrated. While most institutions will haveexamples of such teaching in engineering, few have pursued the issue as consciously as RensselaerPolytechnic Institute. A progression of studio types has led to circular and semicircular designs inwhich the students slip back and forth between a lecture mode, facing inward, and an applicationmode, facing outward. One such studio
Paper ID #9669A Multidisciplinary MOOC on Creativity, Innovation, and Change: Encour-aging Experimentation and Experiential Learning on a Grand ScaleDr. Kathryn Jablokow, Pennsylvania State University Dr. Kathryn Jablokow is an Associate Professor of Mechanical Engineering and Engineering Design at Penn State University. A graduate of Ohio State University (Ph.D., Electrical Engineering), Dr. Jablokow’s teaching and research interests include problem solving, invention, and creativity in science and engineer- ing, as well as robotics and computational dynamics. In addition to her membership in ASEE, she is a Senior
SummerResidency.Feemster11 and Mohamidi et.al12 utilized MATLAB/SIMULINK in an educational setting.MATLAB/SIMULINK is utilized in the four credit hour Engine Systems and Controls course forthe MEES program.MEES Program design-The design of this on-line master’s degree was based on several critical elements: - An identified need - A vision and mission statement - A determination of the students’ skills and knowledge to be developed by the program - A well thought out curriculum - Course design incorporating instructional design methodologies and the strengths of the on-line learning environment - A program and delivery method that meets the needs of the students - Outstanding and competent IT (Information Technology) resources - A financial and
experiential and inter-disciplinary learning intheir curricula. For instance, some courses attempt to introduce experiential leaning throughinter-disciplinary projects.4 Others teach loosely related topics using a unifying theme in fieldssuch psychology5 and biology.6 However, most inter-disciplinary courses usually focus on thedepth of specific content in a couple of disciplines rather than the breadth, i.e. integration ofcontent across a variety of disciplines. More specifically, all students taking such an inter-disciplinary course are required to master the skills and the content equally well regardless oftheir core discipline. An immediate shortcoming of this approach is that it severely restricts thediversity of student participants with respect
GovernmentCreating the Foundation for Exploration—Engineering 110Establishing a strong mechanism to support students in the intentional exploration of learningexperiences is integral to the success of the experiential learning framework. In order toaccomplish this, we will leverage Engineering 110, an existing elective course that currentlyserves around 300 students per year (approximately 20% of first-year engineeringstudents). Engineering 110 provides students the opportunity to explore the breadth ofeducational and career opportunities available to engineers.Engineering 110 is engaged in a multiyear redesign process through a University-wide effort totransform high-impact, large-enrollment introductory courses at U-M. Prior to this effort, thecourse was
testing, as well as system identification andcontrol design. Although aerospace engineering students are introduced to the fundamentals offlight dynamics in their coursework, the experience of project-based research enhances theirunderstanding of the discipline as well as improves other critical engineering skills for futureapplication in the professional world. This paper describes the work of several undergraduate andgraduate students in the above-mentioned areas, with particular emphasis on the flight-testingand system identification phases.IntroductionAerospace engineering education at a college or university typically encompasses the study ofaircraft, rockets, missiles, and spacecraft. An aerospace engineering curriculum consists of
developthe non-technical soft skills needed by professional engineers. Case studies employing technicalmemos, mock conferences, and fictional funding calls demonstrate the applicability of novelassessment approaches to ABET learning objectives related to communication and life-longlearning, as well as general competencies needed for an interdisciplinary global engineer. Thesenovel approaches to assessment retain the ability to measure apparent technical competencewhile introducing the students to a broad range of communication methods and approaches thatmay not otherwise be included in an engineering curriculum. By using forms of communicationsynergistic with industry practices the students are exposed to more realistic engineeringexperiences and
, the operating money had to comeout of the existing EWU budget (an internal relocation). Many on campus were furious and, ofcourse, the BSEE program had to be approved by faculty committees. The administration wasextremely supportive of the BSEE effort and in the end EWU faculty committees did approve thenew program. Luckily, the HECB created opportunities for “high demand” fields to receiveadditional funding. This resulted in three new department faculty positions. Therefore, internalrelocations were kept to a minimum.III. Curriculum DevelopmentThe most important step in the planning of the electrical engineering degree was, obviously, thecurriculum. Before getting down to the actual four year plan, the Department sought help fromits
" offers an AR mobileassistive application that supports the social compass curriculum to help children with autism © American Society for Engineering Education, 2021 2021 ASEE Southeast Section Conferencepractice social skills in real-time situations. The Social Compass curriculum is a behavioral andeducational curriculum that includes 26 lessons divided into four modules: NonverbalCommunication, Emotion, "We" skills, and Social Problem Solving (Escobedo,2012). Thesystem was deployed in a public-school setting where results showed positive ease of use andstudents practicing social skills. Research also concluded that smartphones motivated childrenwith autism toward social interactions without
. Our curriculum has gone through two major redesigns in the past decade, in response to the needs of industry and graduate schools, while facilitating the implementation of the latest pedagogical innovations in engineering education. Our most recent redesign focused on integrating opportunities for active learning by adding more lab experiences to our already very hands-on curriculum. We believe that student engagement, active learning, and collaboration go hand in hand. Because students are admitted directly into the department, they never compete against each other. On the contrary, they see value in collaborating with each other by organizing study groups and working on team projects. Student responses indicate a
Marconi’s transatlantic wireless transmission in 2001. For highschool students, the Marconi Challenge provides an opportunity to demonstrate the principles oflens and mirrors in optics and basic electronics in a stimulating environment. The transmissionmedium is infrared light and the requisite components and test equipment are inexpensive, easilyobtained and no license is required. Complete teaching modules have been developed andaccepted by a school district for use in the junior high school science and senior high schoolphysics curriculum. Undergraduate ECE students can utilize more complex electronics, errorcorrecting codes and RF modulation methods with an Amateur Radio license to exploreapplications of wireless communication based on their
part through project based work, designed to be undertaken in a real academic setting, and they should be jointly assessed by employers and the higher education institution. The intention is that enterprise programmes offer more than simple, bolt on modules of business studies. There should be an attempt to integrate the new programmes with the education provision already offered to the students. The initiative is not a narrow vocational substitution for broad academic education and does not displace the need for high level expertise and professionalism in any number of specialisations. Associated staff development is a critical feature of the initiative and it is expected that institutions will design training programmes for staff to deal
predictor of future college success.What mathematical concepts are future freshman engineering students taught in high school andare they sufficient preparation for the rigors of an engineering curriculum? This paper will takean introductory look at these questions by examining the North Carolina approach to high schoolmath, through the Standard Course of Study, by selected classroom snapshots and by assessmentof selected mathematics skills of college freshmen.1.0 IntroductionExperience working with teachers1 has show that it is common for teachers at one level to not beaware of what math is taught at the previous and next levels, including the transition from highschool to college. In addition, high stakes testing is having a definite impact on
, allowing us to monitor student growth and evaluate the effectiveness ofthese teaching and learning devices for populations with different exposures to experimentaltreatments. Here we detail the development and implementation of the Professional DevelopmentSurvey for Engineering Undergraduates (PDS). The PDS reliably measures the students’conscientiousness, perceived intellect, learning goal orientation, performance goal orientation,subject matter attitude, professional development attitude, and attitude toward the field ofchemical engineering.Introduction Previously1,2, we introduced an approach to integrate a hierarchical mental growth model intoan undergraduate engineering curriculum, described teaching and learning strategies to supportthat
paper entitled Engineering Leadership: Bridging the Culture Gap in EngineeringEducation [1] we argued that a major barrier to change in engineering education, including theincorporation of engineering leadership into the curriculum, is the culture that exists in ourinstitutions. We proposed that the elements and dynamics of this culture can be examined in theform of co-contraries (or opposites that need each other) and that the relative emphasis in theseco-contraries reflects the engineering educational culture in a department, an institution or inengineering education as a whole. Example cultural co-contraries identified include: the powerdistance dynamic between the student and the professor; the nature of the distribution of effortbetween
the established disciplines”, International Journal for Sustainability in Higher Education, 5(3), 239-250.Azapagic, A., Perdan, S., and Shallcross, D. (2005), “How much do engineering students know about sustainable development? The findings of an international survey and possible implications for the engineering curriculum”, European Journal of Engineering Education, 30(1), 1-19.Dewoolkar, M. M., George, L. A., Hayden, N. J., and Neumann, M. (2009a), “Hands-on undergraduate geotechnical engineering modules in the context of effective learning pedagogies, ABET outcomes, and curricular reform”, J. of Professional Issues in Engineering Education and Practice, 135(4), 161-175.Dewoolkar, M. M., George, L. A
preparedcybersecurity workforce to defend IT infrastructure and fight against cybercrimes. It’s projectedthat the US is in an urgent demand of thousands of information security workers. The NationalScience Foundation has established a number of grants to award projects that promotecybersecurity education and curriculum development. Some of these projects have reportedsuccess of teaching hands-on skills through Gamification, a game-like learning environment.CTF (Capture-the-Flag) events are particularly successful in attracting college students, evenfrom non-IT/CS major and high school students into cybersecurity. This paper summarizes thecurrent popular Gamification technologies and the practice of using CTF and competitionprojects in classroom
) disciplines. Inparticular, effective teamwork can improve an engineering team’s performance, communication,and collaboration. In this paper, we discuss students’ attitudes toward teamwork, teamwork self-efficacy, and interest levels in developing teamwork skills and abilities. Although literatureprovides guidance on how to gauge teamwork self-efficacy, the level of interest towardteamwork and students’ positive or negative teamwork attitudes, the relationships amonginterest, efficacy and attitudes toward teamwork are not clear. We argue that assessing students’interest levels should be an integral part of teamwork assessment because interest is a construct,which can predict students’ long-term dedications to grow professionally in a domain.Therefore