23.1307.3performance projects and must be taught to both professionals and students. Utilizingthis technology not only has the potential to improve the process of design, but it canalso improve the process of collaboration. Substantial integration of energy anddaylight modeling, early in the design process, has the potential to redefine thedisciplinary relationships for both academic and professional praxis. By usingperformance modeling as a vehicle, multi-disciplinary teams of university students canmore effectively learn the process of integrated design and project delivery 1.Incorporating performance modeling throughout the design process requiresinvolvement from multiple professions across a project‟s lifecycle. For example, asarchitects employ energy
launching the i2i lab. Eric has served as the university representative on the Haas Technical Education Council, which is committed to developing manufacturing expertise at the high school, trade school, and university level. He received a BSEE from Purdue University in 1992. He has over 15 years of industrial experience, specializing in manufacturing and electronic controls, for which he holds 3 patents. Eric’s industrial experience includes positions at Toyota, Cummins, Woodward, and TRW Automotive. He is currently pursuing his PhD in Engineering Education from Purdue, with an expected graduation date of 2020.Dr. William ”Bill” C. Oakes, Purdue University, West Lafayette (College of Engineering) William (Bill) Oakes is
Session 1330 An Analytical Control System Model of Undergraduate Engineering Education F.L. Grismore, Juliet Hurtig, Barry Farbrother Ohio Northern UniversityIntroductionEngineering programs over the last two decades have been re-engineered in a vain attempt toincrease enrollment but the failure has been dismal. From 1986 to 1996 the total number ofuniversity B.S. degrees increased by 18%, while engineering B.S. degree quantity decreased byabout 19% 1. We as engineering educators observed this decline and proposed innovativemethods for
Joanna Wright is an M.Ed. student in Learning Sciences and Human Development at the University of Washington, Seattle. Her education research interests span early childhood through higher education, with a focus on the impact of pedagogical practices and contexts on learning and development. c American Society for Engineering Education, 2019 After #MeToo: What’s Next for Women in the Engineering Workplace?AbstractThis paper (and corresponding panel session at ASEE 2019) seeks to provide researchers whohave an interest or potential interest in studying women engineers in the workplace (academic,corporate, government, nonprofit) with tools to support that
experiments that illustrate principles in fluidic,thermal, and chemical systems. Students engage in two eight-hour laboratory work days eachweek. The course is designed to deliver experiential learning; students generate an experimentaldesign to achieve broad-based objectives, and perform extended experimental work with longlaboratory times. The active phase of learning that is naturally present in laboratory work isenhanced by providing latitude to the students in their experimental plans, and by allowing themto reflect on their lab experiences when repeating an early experiment at the end of the Session.KeywordsExperiential learning, unit operations laboratory.1. IntroductionThe curricula of most Chemical Engineering departments in the United
interests include the use of machine learning in general and deep learning in particular in support of the data-driven and self-driven management of large-scale deployments of IoT and smart city infrastruc- ture and services, Wireless Vehicular Networks (VANETs), cooperation and spectrum access etiquette in cognitive radio networks, and management and planning of software defined networks (SDN). He is an ABET Program Evaluator (PEV) with the Computing Accreditation Commission (CAC). He served on many academic program design, review and planning efforts. He serves on editorial boards of multiple journals including IEEE Communications Letter and IEEE Network Magazine. He also served as chair, co-chair, and technical
. Methods for creating a paradigm shift towards a natural learningcycle with emphasis on reflective learning activities such as establishing student ‘buy-in’ will bepresented.1 IntroductionReflective learning activities can help engineering students practice newly acquired analysistools as well as assist them in learning from their mistakes.1,2 The study presented in this articlewill provide the results of using reflective activities important to the learning process ofengineering students in an advanced technical and mathematically rigorous course. A briefcourse description is given to establish course expectations placed on the student as well as thepractical relevancy of the class. The teaching and learning model presented by Kolb’sExperiential
AC 2009-760: PROGRESS OF THE EXCEL PROGRAM AT THE UNIVERSITY OFCENTRAL FLORIDA: AN NSF STEP FUNDED PROJECTMichael Georgiopoulos, University of Central Florida Michael Georgiopoulos has received a Diploma in EE from the National Technical University of Athens, Greece, in 1981,and an MS in EE and a Ph.D.in EE from the University of Connecticut, Storrs, CT, in 1983 and 1986, respectively. He joined the University of Central Florida in1986,where he is currently a Professor in the School of EECS. His research interests lie in the areas of Machine Learning and applications with special em-phasis on ART neural networks. He has published his work in over 250 journal and conference venues. He has been
Session FB1-1 The Texas Interactive Power Simulator - an Analytical Tool for Direct Instruction & Informing the Public Melissa C Lott Mechanical Engineering Department The University of Texas at Austin Dr. Carey W King Center for International Energy & Environmental Policy The University of Texas at Austin Dr. Michael E Webber Mechanical Engineering Department
Informal and Formal Learning:There are a number of designs that can be used in the evaluation of one’s program or project(Friedman, 2008). Regardless of the evaluation design, a ‘logic model’ is a very useful tool toclarify the goals of the evaluation and the project as a whole. Below, we define the logic modelin terms of its generic components and include our specific components in parentheses: (1)Intended audience (transdisciplinary student groups) (2) Inputs - funding/in-kind contributionsthat are brought to a project (we have had funding from a local medical devices company and ouruniversity that supported this effort); (3) Activities - action undertaken to bring about desiredends (in our case, smart phone apps for healthcare); (4) Outputs
Session 1661 Co-op and ABET 2000: The Added Learning Dimension! Richard Canale, Cheryl Cates, Ellen Duwart Northeastern University / University of Cincinnati / Northeastern UniversityAbstractStudent perceptions are only one method to assess learning. However, student perceptions oflearning are an important factor that the Accreditation Board for Engineering and Technology(ABET) review teams take into consideration as they make their decisions. This paper seeks toexamine student perceptions as to the impact of cooperative education in the development of thespecific attributes
path. It is important to note thatthe risks are industry specific. Proceedings of the 2018 Conference for Industry and Education Collaboration Copyright ©2018 American Society for Engineering Education Session ETD 435 Figure 1: Coaching Points for a Senior Management Team’s Successful Innovation LeadershipUltimately the cost of the wrong decision will be measured against the cost of no decision at all.In terms of being able to make corrections the software industry allows these changes to be madewith relatively low cost. However, in the full scale engineering development of a hardwareprogram wrong decisions cannot be
hard to implement a hands-on, active environment thatmay benefit students. To this end, experiential learning can be an important part of engineeringeducation and is often achieved through laboratory exercises (labs) and in-class demonstrations.Providing hands-on, physical activities augments and enhances the students’ understanding andvisualization of a topic [1]-[4]. This is especially true in engineering courses that involve designand construction, such as reinforced concrete design. Experiential learning in a laboratory can be simple or extremely complex depending onthe topic and time permitted. In a laboratory setting, students can be involved in the constructionand testing of small or large specimens. Immersion in the construction
Session T1B1 Improving practical knowledge of educators with cooperation of municipalities B. Neal Whitten, Charles D. Parker Department of Technology and Geomatics – Construction Engineering Technology East Tennessee State University ABSTRACTUndisputedly, there are many educators in the engineering and engineering technologyfields that have superior academic and theoretical knowledge. This knowledge makesthem well prepared for teaching students who want to go in to academia or researchoriented careers, but may not make them as well prepared for
feedback provided. ing far beyond the given task. In words of Alpay, Cutler, The activity began by organizing an informal discussion Eisenbach, and Field,[22] “the teaching experience can session to brief the students of the objectives, methodology, lead to the development of organizational, communica- and expectations of the activity. The session also served as a tion, and critical-thinking skills associated with the teach- platform to collectively discuss the framework of the assess- ing process, as well as improved knowledge and technical ment rubrics as well as the instructor-student contribution ratio
andcultural activities, which will provide students with a great experience and allow them todiscover a different world (see Figure 1). Fig. 1. Schedule for 2016/2017The duration of the course can be in more or less days according to the availability of the groupof students. Some activities can also be altered to fit the goals of the course. It is, in fact, a veryflexible part of the course.Within the academic activities, students have classes and participate in activities in differentuniversities.Technical activities include visits to some companies of the visited country. The lecturers aregenerally very technical in content, being some of them about administration aspects of projectsand business generated
Associates degrees. Of the total 128 credits required for the degree,students can normally transfer up to 64 credits from a Community College. There are articulation Proceedings of the 2018 Conference for Industry and Education Collaboration Copyright ©2018 American Society for Engineering Education Session ETD 305agreements in place allowing for the transfer of more than the standard 64 credits from selectinstitutions. The MCT program structure is outlined in Table 1. It consists of a common upperdivision technical core (25 credits), three parallel tracks allowing students to choose an area ofspecialization (8 – 9
, especially in thefield of industry 4.0, but it has been applied also to other industry fields such as healthcare andconstruction [1-3]. The concept expresses the blending of virtual and real worlds to predictsystems behaviors based on data driven virtual products and verification [1], [4]. Programming isan important part of the digital twin concept [5].In fact, programming has becoming more relevant in our lives as we live in an immersive digitalage and is often associated to algorithmic thinking, which is not only a skill related to computersbut becomes something more general that can be applied to other fields [6], [7].Often, the class curriculum stays behind, despite different initiatives are suggested forimplementation such as the USA initiative
Future Approaches: 1. Emphasize the importance of database concepts in pre-requisite classes, and provide specific examples of how that could be applied to other GIS classes. 2. Have students collaborate with a GIS instructor to work on an academic project that integrates the concepts of relational and spatial DBMS. ConclusionAlthough the paper focuses upon a DBMS course for GIS majors, the recommendationscan be generalized to any technical course. For example, the instructor must begin withan understanding of the discipline at the academic and industrial level. Once theinstructor has the basic understanding, the instructor can collaborate with his/her peersand industry
Session 9-2 Information Security Lab Development with Free and Open Source Software: Applied Cryptology and Secure Communications Edward Crowley Information and Logistics Department University of Houston AbstractSeveral current trends are making the securing of an enterprise’s informational assetsincreasingly challenging. Three significant trends are that enterprises are increasingly:1. Becoming more dependent on digital information and related systems that process, store, and transport that information.2
161discarded, and some presented to the administration as feasible action items. In this study, therewere five student groups and one faculty group. The generated ideas, an analysis, and someimplementation results are presented next.IdeasThree brainwriting sessions were administered. Each of the two student sessions was discussed(ranking of ideas) by the whole class. Five student groups and one faculty group with about sixmembers per group and three ideas per member generated a large number of ideas. At eachdiscussion session, duplicate ideas were erased and for each idea a decision was made on itsquality parameters: feasibility and importance ranking. The lower the number the more important(and/or easier to implement) the idea. Figure 1 shows a
expected to become reasonably competent at operating certainlaboratory equipment, such as wind tunnels, load frames, and scanning electron microscopes(SEM), to which they would receive minimal exposure at many other universities, and thismakes Embry-Riddle unique in this regard.Within this context, the authors wrote a successful proposal to the National Science Foundation(NSF) to fund the creation of a laboratory-based course on materials and structural failure. Theemphasis is on failure modes and related issues that especially pertain to the aerospace industry,primarily because of the overall emphasis on the aerospace industry generated at Embry-RiddleAeronautical University. The course syllabus is influenced by the technical skills and
part of the higher education systems[1]. Internettechnologies have had a significant impact on the recent development of engineering educationsystem[2]. In recent years, many institutions have deployed numerous online courses. Some ofthese online courses completely replace the need for traditionally in classroom courses. Whilethese online courses provide flexible scheduling and different learning experiences toengineering students, they generally lack the required interactive activities and precious face-to-face time between the course instructor and students. Meanwhile, the growth of computerengineering student enrollments coupled with budgetary constraints is challenging institutions toeffectively serve their students. Furthermore, the
• Analyzing and evaluating arguments, interpretations or beliefs • Synthesizing subject-matter insights and knowledge The Capstone CourseThe course enables students to: (1) complete two projects based on their field of interest, (2)prepare an effective written technical report, (3) plan and produce presentation materials whichmost effectively communicate the intended message for their technical oral presentation, and (4)apply concepts and practices of their field of experience to develop and effectively present their Proceedings of the 2008 ASEE Gulf-Southwest Annual Conference The University of New Mexico – Albuquerque Copyright © 2008
engineeringdepartment to come to the US university [LTU] for one term concentrating on their seniorproject. The mechanics of this program has been previously detailed [2-4]. Additionally, therehave been a number of student surveys taken to assess the Chinese students’ perceived value ofthe English taught in the eight courses versus the technical content of the courses [1]. However,it is thought that the results of these survey instruments may be inaccurate and misleading, givenProceedings of the 2012 Midwest Section Conference of the American Society for Engineering Educationthe cultural differences of Chinese students and their inexperience and therefore are a bit wary ofthe survey results. It is noteworthy to observe that the exchange students who spent a
interdisciplinary teams sessions and field trips Engage in community Participate in training Participate in general Manage the chapter
the degree program currently seen related to the content beyond advanced technologies.being developed at TAMU. Further, a brief assessment of The curriculum for the MSET at Wayne State Universitythe potential job market awaiting the graduates from this [4] incorporates problem solving skills with communicationprogram, as well as the expected student demand was and project management. The Purdue University onlinepresented. Future work includes continued refinement of Master of Science in Engineering Technology program [1]the curriculum and other program details by drawing upon emphasizes more general objectives such as “design andthe best attributes of currently offered similar programs. guide
electrical engineering,we can identify the following general characteristics that can be viewed as unfavorablefor development of life-long learners. Please note that the identified characteristics arehighly related and in many cases, by redirecting students’ efforts, an unfavorablecharacteristic can become a great asset. 1. They are not challengeable. In general, the students are not willing to accept challenges. When things are hard and the first sign of an unacceptable grade or class performance is seen, the first reaction of many students is to panic and quit. This usually manifests itself in a change of the field of study as well as dropping the class, changing schools, or just not working on classes any more and accepting the
redundant in participating in class activities. We immediately tookaction to address the obstacle and bring students back on track.MethodsWith the support of the School’s Director, we made the following adjustments.1. Rearrange lecture room: we worked with the staff to reserve two classrooms for laboratory practice. The lecture delivery method was rearranged with 30-50% lecture presentations and 50-70% laboratory practices depending on the student’s learning progress2. Readjust lecture pathing: we reallocated the percentage of lecture presentations and lab practice by reducing course presentations and increasing the Q&A sessions. The direction of lecture delivery was switched right away to mainly focus on lab practice which allowed us
meant that each of the seven groups would take charge of twocases in terms of: presentation, provision of additional supplementary information when needed,and documenting generated discussion that proceeded presentation. The three 50 minute sessionsper week were apportioned as follows: The first session was primarily devoted to thepresentation of the selected case by the assigned group, followed by a short question and answerperiod. During the second session, an open discussion, guided by the instructor, would be gearedtowards relevant technical and nontechnical issues that had a bearing on the case. In this secondsession, all seven groups that made up the class contributed to the discussion. In the thirdsession, an invited speaker, a