Session 2158 VISUALIZATION TECHNIQUES FOR STRUCTURAL DESIGN EDUCATION Mohammed E. Haque, Ph.D., P.E. Texas A&M University, Texas, USAAbstractThe contemporary information technology (IT) allows us to develop learner-centered virtualdesign studios that can be reached to a large student population via the web. Considerablepedagogical advantages can be achieved by the integration of IT and visualization tools inteaching engineering technology. Structural analysis and design concept visualization, whether inreinforced concrete or steel structure is a subject
projectwith two objectives: to identify the student and workforce learning characteristics in general, andto conduct an assessment of the current technology skills and knowledge of construction andengineering students and professional workers. These baseline data are being used to identify theneeds of technology education for the construction workforce. More importantly, these findingsare guiding the design and testing of prototypical technology-enhanced learning. This paperpresents our initial findings from engineering students in our on-going research on effectivepedagogy for technology-based construction education. In the paper, we will describe the designof the baseline data collection instruments that assess student technology skills and use of
Society for Engineering Education, 2007 Teaching Structured Programming Using LEGO Programmable BricksAbstractFor the first time in nearly a decade, the LEGO programmable brick has undergone a majorhardware revision. The LEGO programmable brick has been adopted for a variety of uses inprimary, secondary, and higher education. With the introduction of the new hardware, thereappears to be a growing interest in using the programmable brick for teaching computerprogramming to college students. The goal of this project was to develop a set of instructionalworkshops, online tutorials, and accompanying project-based learning exercises that, combined,teach the basics of structured computer
include displacement, velocity, and acceleration can be easilyobtained. With such a powerful tool, students can enhance their problem solving skills andunderstand the concepts of mechanism design better along the way.The course of Advanced Computer-Aided Design offered at Central Michigan Universityemploys such a design tool called SDRC/I-DEAS. Although this software is sophisticated interms of capabilities, it is not difficult to learn due to its visual feedback at every step. This iscrucial for students in engineering technology who learn best when they can see things and workwith them. The capability of animation provided by the software stimulates great interests fromstudents. This article discusses how the animation is used to help students
. She worked on the PowerEN Technology, a blur between general purpose and networking processors and hardware accelerators. She identified and studied workloads at the edge of the network that required high-throughput and fast deep-packet processing. Since 2012, her research has been focused on Computer Science Education, especially in the area of peer collaboration, scaling techniques for large courses, auto-graders and learning analytics. She is also working on software that can be used for teaching and learning. She is investigating techniques and best practices on broadening participation in Computer Science. Women and minorities need to be more involved in tech innovation as companies and teams perform
engineering students and understanding what affects their choice of collegemajor is critical to engineering educational research. Insufficient numbers of students aremajoring in Science, Technology, Engineering, or Mathematics (STEM) topics. Understandingthe factors that affect students’ interest in studying STEM, capability of succeeding in STEM,and likelihood of persisting to achieve a STEM degree is of vital concern to educators.This study used an extensive national longitudinal dataset of over 12,000 students to develop aset of logistic regression models for predicting which students ultimately achieve a STEM degreevs. another educational outcome. The potential educational outcomes included no collegedegree, a less than four year college degree
Session 1255 A Model for Graduate Crossdisciplinary Education John Sears, Bill Costerton, Nick Zelver Center for Biofilm Engineering Montana State University, Bozeman, Montana Technology has evolved to require detailed engineering of chemistry, biology, physics and mathematicsto describe and apply many of today’s and tomorrow’s innovations. Thus, experts are brought together tointeract in teams at technology and research centers. These teams must be able to cross the boundaries ofdisciplines to succeed. An
AC 2010-933: A SIMPLIFIED DOCUMENTATION CONTROL SYSTEM FOR USEWITH A CAPSTONE SENIOR DESIGN PROGRAMPeter Schmidt, University of North Carolina, CharlotteDeborah Sharer, University of North Carolina, CharlotteNabila (Nan) BouSaba, University of North Carolina, CharlotteDaniel Hoch, University of North Carolina, CharlotteJames Conrad, University of North Carolina, CharlotteBruce Gehrig, University of North Carolina, CharlotteSteve Patterson, University of North Carolina, Charlotte Page 15.89.1© American Society for Engineering Education, 2010 A Simplified System of Document Control for a Capstone Senior Design ProgramAbstractModern Enterprise Resource
the course are currently being developed for distribution to studentswho cannot access the videos. Currently a large off-site media server is being used to stream thevideos. The server was obtained via a grant co-sponsored by the University of Cincinnati,intended to demonstrate the ability of an off-campus server to accept, house, and deliver largemedia clips for another educational institution.The course has an introduction that includes an overview containing the course description and Page 10.1248.2learning outcomes. The introduction also includes a testimonial about the future value of careers“Proceedings of the 2005 American
, the precision of our investigationwill improve. For example, written responses from trainees attribute the inclusive nature of theNRT program to the small size of cohort groups, the leadership style, and the opportunity toconnect with peers and professionals from diverse academic and ethnic backgrounds. Next year’ssurvey could ask in more detail about these factors. Sampling from subsequent generations ofNRT cohorts will also help us develop a larger database, allowing us to produce more solidevidence to support conclusions.AcknowledgmentThis work was supported by the National Science Foundation Research Traineeship (NRT)program (NSF grant # 1828571).References[1] “Digest of Education Statistics, 2019,” nces.ed.gov.https://nces.ed.gov
Paper ID #43913The Use of Chatbots in Engineering Including Critical Thinking and ProblemDefinitionDr. Hugh Jack P. Eng., Western Carolina University Dr. Jack is the Cass Ballenger Distinguished Professor of Engineering in the School of Engineering and Technology within Western Carolina University. His interests include robotics, automation, and product design.Dr. Yanjun Yan, Western Carolina University Yanjun Yan is an Associate Professor in Engineering and Technology at Western Carolina University. Her research interests include engineering education, artificial intelligence, swarm robotics, and statistical signal
Engineering Technology should consider during the tenure journey.“Proceedings of the 2005 American Society for Engineering Education Annual Conference and Exposition Copyright 2005, American Society for Engineering Education” ETD 2142 • Start preparing a P & T Document Do not wait until the month before going up for tenure to start working on the promotion and tenure document (P & T document). Find out what guidelines or templates are used. Tenured colleague’s documents are another good source of information in preparing a P & T Document. • Find out who your friends are Upon
in semesters past [2]. Technological tools rangefrom software, which provides students with a virtual tool helping students to observe andvisualize multiple concepts taught in lecture, to physical tools that can be used to providestudents with an interactive device that students can observe and learn from. Having studentsdesign and build physical technological tools as a form of a school project or summer internshipalso exposes them to real-life engineering applications [3]. This work presents the use of aphysical technological tool, which can be used in education to help reinforce and expand high-school and undergraduate engineering education.BackgroundHands-on technological tools have been used in education for many years. In 2009, a micro
Engineering Education, 2006 Using Rockets to Unify Topics in an Electro-Mechanical Engineering Technology Instrumentation CourseAbstractModel rockets are being used at Penn State Berks to unify topics in an electro-mechanicalengineering technology instrumentation course. Model rockets provide an exciting platform onwhich to carry many types of devices and sensors. Throughout the semester, several types ofsensors and transducers are introduced and studied. Sensors include thermistors, micromachinedaccelerometers and integrated pressure transducers. The physics, construction and characteristicsof these sensors are discussed in the course lectures. The students also receive hands-onexperience with many of the sensors
FIBER OPTICS For Non-EE Educators Lester W. Spencer Lake Superior State College Fiber optics is a technological break-through thatis having a revolutionary impact on the electronic industryand the field of medicine. Television signals can easilybe carried over a single fiber, thereby opening up newpossibilities for both entertainment and business purposes.Buildings can be "wired", with the almost invisible fibers,to provide internal communication services. Much of the cabling that interconnects metropolitantelephone switching centers goes through underground ducts.Light-wave communications with their high capacity andsmall size not only are making
” characteristicsof value found in the Canstruction® project including the preparatory requirements, participantsinvolved, and the competition’s overall contribution to engineering education. We then discussthe “dormant” opportunities for civil engineering students and educators to use links betweenprograms such as the Canstruction® project and existing curricular content such as promotingmulti-level mentorship and “real-time” problem solving activities.Additional advantages of such links include opportunities for expanding instructional methodsand addressing critical crossover areas of the revised Criteria for Accrediting EngineeringPrograms (ABET )1. Throughout our discussion, we also share our experiences with relatedpedagogical theories and instructional
engagement classifier and gauge overall attention to the lecture.3.1. Data collectionTo verify the proper setting of the experiment, different lab trials are performed for the activities,which include the technological infrastructure required. During an experiment: 1) onlyunobtrusive sensors, e.g., cameras, are used to collect data. 2) Observers unobtrusively take notesabout relevant physical activities of the students’ emotional control via remote observationthrough the camera feeds. After an experiment: Psychology and education experts annotaterecorded videos for different affective states.In this study, we investigate how human observers judge engagement from the face and bodymovement. Identifying these observations helps in automating the
distinct combinations of these methods; second, describing theapplication of the models in the context of the author’s teaching experience; and, thirdassessing the applicability of the models in educational settings at large.Model development capitalized on the author’s lighting teaching experience at BowlingGreen State University. In classes for undergraduate architecture, interior design, andconstruction students, the author planned and repeatedly taught lighting subjects in which avariety of lighting design teaching methods were used over the years. This first-handexperience provided the main body of data needed for the study. Teaching Methods and ModelsThe teaching methods of interest for this study exhibit
Analog Computation for Mobile Robotics Education Bradley E. Bishop, Carl E. Wick United States Naval Academy Systems Engineering 105 Maryland Ave (Stop 14a) Annapolis, MD 21401 bishop@usna.edu, wick@usna.eduAbstract: In this paper, we present a mobile robot design exercise that relies on simple analogcircuits to accomplish tasks that are typically carried out using microcontrollers. Students arechallenged to use simple analog sensors and IC’s to develop a mobile robot that is attracted to alight source
technology to conveyabstract scientific concepts,” in Learning the Sciences of the 21st Century: Research, Design, andImplementing Advanced Technology Learning Environments, Jacobson, M. J., Kozma, R. B., Ed.Mahwah, NJ: Lawrence Erlbaum Associates, 1997.[3] B. G. Baartmans, S. A. Sorby, Introduction to 3-D Spatial Visualization. Englewood Cliffs,NJ: Prentice Hall, 1996.[4] C. Youngblut, "Educational uses of virtual reality technology", Institute for DefenseAnalyses, Alexandria, VA, January 1998.[5] C. Dede, M. Salzman, and B. Loftin, "ScienceSpace: virtual realities for learning complexand abstract scientific concepts," in Proc. of VRAIS '96, San Jose, CA, pp. 246-252.[6] C. D., M. Salzman, B. Loftin, “MaxwellWorld: learning complex scientific
EngineeringEducation, vol. 84, no. 2, 1995, pp. 165--174.5. Tony Clear , Michael Goldweber , Frank H. Young , Paul M. Leidig , Kirk Scott, Resources for instructors ofcapstone courses in computing, Working group reports from ITiCSE on Innovation and technology in computerscience education, December 01, 2001, Canterbury, UK6. Lonsdale, E. M., Mylrea, K. C., and Ostheimer, M. W. "Professional Preparation: A Course that SuccessfullyTeaches Needed Skills Using Different Pedagogical Techniques," Journal of Engineering Education, vol. 84, no. 2,1995, pp. 187--191.7. Pimmel, R. "Cooperative Learning Instructional Activities in a Capstone Design Course," Journal ofEngineering Education, vol. 90, no. 3, July 2001, pp. 413--21.8. Waitz, I. A. and Barrett, E. C
ObjectivesAdhesive bonding is a widely used method to join materials to generate assemblies. It is analternative to traditional methods of joining materials such as nails, rivets, screws, welding, etc.4,5, 6 Adhesive science and technology is multidisciplinary in nature and is not widely covered inengineering technology courses. Nevertheless, it is an important subject that students may findreal world applications for in their jobs. The faculty sponsor of the adhesive team received aNational Science Foundation (NSF) research grant to conduct research in coating adhesion. Tointegrate research and education, one of the tasks in the NSF sponsored project is to developoutreach activities that are appropriate for elementary school (K-5) students. The
integrate two or more teaching strategies for advancement of education quality.For instance, Khorbotly combined a project-based pedagogy and a traditional lecture-baseteaching method that better develop and teach a computer vision class in the undergraduateelectrical and computer engineering program (Khorbotly, 2015). Oliveira implemented activelearning, and cooperative learning associated with a problem-based learning protocol in electricalengineering technology hands-on courses (Oliveira, 2015).Student-centered learning has been discovered as the most effective pedagogy for teaching andlearning science process skills and content. However, in some difficult curriculum, use ofstudent-centered learning pedagogy only for enhancement of engineering
into policy, academia/industry relations and organizational structure SPEEDserves to continue the professional education of its members and participants of its forums.In June 2013, SPEED collaborated with Indo-US Collaboration for Engineering Education(IUCEE). IUCEE works to improve the quality and global relevance of EE and research in Indiawith focus on faculty development, student development, curriculum development, as well as Page 26.661.2improved teaching technologies and research [2]. Both the organizations joined hands to improvethe EE scenario in India for the benefit of the student fraternity. 2.) Grand Challenges for Engineering:The
Creating a "Global Algorithm" for Engineering EducationAbstractFor five generations American engineering education has rested upon a practical model ofdrawing a broad range of students with certain mathematical skills and wide technologicalinterests into a large-mouthed pedagogic funnel, gradually compressing their training into ever-narrower frames of specific, skill-sets and acumens. The result has been to standardize the end-products emerging from the apex of the educational funnel. Examinations and re-toolings ofengineering education have usually merely redirected the funnel with recommendations of newmethods and protocols for fine-tuning the relevance of contemporary technology to theclassroom and laboratory. One canon remains constant
“hard technology” of the computer.7 The proper use of soft technologies (simulationsoftware) as a tool can improve student performance in gaining hands-on experience. According to Leutner (1993), in traditional education, the teacher is responsible for thestudents’ learning. Teachers typically lecture to students who take notes and then memorize andrecall the material to perform well on examinations.8 This type of learning environment is notappropriate for college students who bring life skills and increased reasoning ability to theclassroom. In such a situation, it may be appropriate for students to take responsibility for theirown education. One method of transferring the responsibility from the teacher to the student isthrough guided
Paper ID #10385Exploring Student Sustainability Knowledge using the Structure of ObservedLearning Outcomes (SOLO) TaxonomyDr. Mary Katherine Watson, The Citadel Dr. Mary Katherine Watson is currently an Assistant Professor of Civil and Environmental Engineering at The Citadel. Prior to joining the faculty at The Citadel, Dr. Watson earned her PhD in Civil and Environmental Engineering from The Georgia Institute of Technology. She also has BS and MS degrees in Biosystems Engineering from Clemson University. Dr. Watson’s research interests are in the areas of engineering education and biological waste treatment. Specifically
the use of technology for education, especially in the area of engineering mechanics and in effective teaching methodologies and their impact on student progress in mechanical engineering.Dr. Eyad Masad Dr. Masad is a Professor in Mechanical Engineering at Texas A&M at Qatar. His main areas of expertise are materials engineering, mechanics and teaching pedagogy. c American Society for Engineering Education, 2020 Enhancing 3D spatial skills of engineering students using Augmented Reality Ali Sheharyar, Eyad Masad, Arun Srinivasa ali.sheharyar@qatar.tamu.edu, eyad.masad@qatar.tamu.edu, asrinivasa@tamu.edu
Paper ID #5886Consistent Course Assessment ModelDr. Sabah Razouk Abro, Lawrence Technological University Dr. Sabah Abro is an internationally educated professor and program Director at Lawrence Technological University. He graduated with a Bachelor degree from the University of Baghdad, pursued a post gradu- ate diploma in planning from the United Nations institute in the middle east, Went to Wales in the United kingdom to get his Master’s degree and then to Belgium for his Ph.D. He has also international work experience; he served as Faculty at Al Mustansiria University in Baghdad, a regional consultant at the
Paper ID #17379Helping the Human Element: Educating in Social EngineeringSamuel Moses, Brigham Young University Samuel Moses is a Security Analyst at Brigham Young University Office of Information Technology. He earned his Bachelors in Information Technology August 2015, emphasizing in the fields of System Administration and Cyber Security. Currently Samuel Moses is working on his Masters in Technology emphasis in Cyber Security.Mr. Nathaniel Scott Baker Nate is a recent addition to the BYU Cyber Security Research Lab. After graduating from high school at the age of 16, he attended junior college at Sierra college for