is currently an assistant professor in the Industrial and Manufacturing Systems Engineering department at Iowa State University, as well as Associate Director of ISU’s Virtual Reality Application Center and its Graduate Program in Human Com- puter Interaction. His research focuses on technology to advance cognition, including interface design, intelligent tutoring systems, and cognitive engineering.Jamie Payton, Temple University Dr. Jamie Payton is an Associate Professor of Computer and Information Sciences at Temple Univer- sity. She received her Ph.D. in Computer Science at Washington University in St. Louis in 2006. Her research interests include crowdsensing, smart and connected health, and software
American Society for Engineering Education Annual Conference & Exposition Copyright c 2003, American Society for Engineering Educationinterests of an instructor. The students in the classroom also bring a diversity of experi-ences and learning styles to the student-teacher relationship. Keeping in mind the respon-sibility of both instructors and students to effectively communicate with one another aswell as to adequately prepare for learning outside of the classroom, engineering instruc-tors should be interested in considering different ways of presenting course material. Thework associated with this paper concentrates on using Mathematica, a mathematical com-puter package produced by Wolfram Research, to • present
to be delivered in a distance learning format.At the University of Cincinnati, a large, urban, midwestern university, a common first-yearengineering design course sequence is taught, which focuses on developing students’ design,algorithmic, mathematical, and spatial thinking skills along with other professional skills such aswritten and oral communication, teamwork, and professional ethics. The course meets twice aweek for two hours each and relies heavily on team-based, hands-on activities and projects tohelp students learn the course material. Additionally, the course uses a flipped classroomapproach, where students watch assigned videos or read selected chapters from the textbookprior to attending class and spend most of class time
11 assignments, most of which are hands-on labs with solarresource assessment tools, PV cells, multi-meters, data loggers, charge controllers, and batteries. The second half of the semester takes a turn away from solar energy systems and movesinto wind energy systems. During the second half of the semester the focus is on types of windturbine generator systems and the factors that influence the energy generation of a wind turbine.The second half of the semester includes six assignments, most of which are hands-on labs withmodel wind turbines, a wind tunnel, and data logging equipment. In addition to the aforementioned labs, both halves of the semester include a requiredstudent project relating to the course material. The
Paper ID #41003Development of a Real-World Thermodynamics Course ProjectDr. Morgan Green, Mississippi State University Morgan Green is an Instructor in the Mechanical Engineering Department at Mississippi State Univer- sity. She holds a Ph.D. in Engineering Education, where her research is focused on the development and assessment of professional skills in engineering students. Other areas of interest and research are engi- neering education outreach and the application of hands-on learning in engineering students. She is the founder and Director of Project ENspire, an engineering outreach event for 4th-6th grade girls now
perspective withbioelectricity and measurement principles. The inquiry-based and hands-on laboratory exercisesin conjunction with extensive pre- and post-lab assignments successfully conveyed the complexbioinstrumentation, bioelectricity and measurement concepts. Upon completion of the course, thestudents were able to successfully utilize circuit models of biological systems, design andconduct laboratory experiments, and design bioinstrumentation systems with adequatebandwidth, amplitude linearity, and phase linearity to faithfully record a physiological event.References1. Harris, T.R., J.D. Bransford, and S.P. Brophy, Roles for learning sciences and learning technologies in biomedical engineering education: a review of recent advances
presentations. All three were involved inevaluating the presentations, and every project was awarded either an “A-” or an “A” based onquality of presentation and technical depth. The evaluators all felt that in general the studentswere very enthusiastic, had put in a high degree of effort, and had digested a significant amountof information.A laboratory segment was included to provide the student a greater insight and understanding ofthe electrical engineering principles and concepts that are at the foundation of RFID technology.Due to a limited inventory of hardware and software in spring 2007 the lab experiments consistedof a set of demonstrations rather than a hands-on exercise. Since then a sufficient inventory oftags and readers have been obtained
presentations. All three were involved inevaluating the presentations, and every project was awarded either an “A-” or an “A” based onquality of presentation and technical depth. The evaluators all felt that in general the studentswere very enthusiastic, had put in a high degree of effort, and had digested a significant amountof information.A laboratory segment was included to provide the student a greater insight and understanding ofthe electrical engineering principles and concepts that are at the foundation of RFID technology.Due to a limited inventory of hardware and software in spring 2007 the lab experiments consistedof a set of demonstrations rather than a hands-on exercise. Since then a sufficient inventory oftags and readers have been obtained
presentations. All three were involved inevaluating the presentations, and every project was awarded either an “A-” or an “A” based onquality of presentation and technical depth. The evaluators all felt that in general the studentswere very enthusiastic, had put in a high degree of effort, and had digested a significant amountof information.A laboratory segment was included to provide the student a greater insight and understanding ofthe electrical engineering principles and concepts that are at the foundation of RFID technology.Due to a limited inventory of hardware and software in spring 2007 the lab experiments consistedof a set of demonstrations rather than a hands-on exercise. Since then a sufficient inventory oftags and readers have been obtained
Hands-On Project Development of People with Disabilities Educational Escape Project: Awakening Portable Sensory Panel Interest in Exact Sciences Development of an Inclined Plane to Assist Organic Vegetable Garden with Automatic Individuals with Motor and Visual Disabilities Irrigation System Monitored via ESP 3 Development of a Chemistry Experiment Kit Proposal for the Revitalization of a Waste for Public School Students Incinerator Space - Eco Cultural Plant - Skate Tracks "The Influence of Board Games on School Development of Light Boxes to Facilitate
concepts. Instructors must place emphasis on engendering properlyconceived engineering intuition and contextualizing concepts and fundamentals. The authorshypothesize that by utilizing often simple, multimodal, inquiry-based exercises, instructors canbetter overcome misconceptions. A novel methodology termed “guided discovery” is presentedherein. It borrows aspects of challenge-based and discovery learning. The method, however, isoptimized for short in-class activities and homework assignments. Several modules arepresented to illustrate the processes used and some preliminary results are included.IntroductionPart of the challenge of encouraging students to think critically about Engineering Mechanics isthat some view the material as “disconnected
an organization called Learning for Life, Jaurez also uses video games to inspire juvenile court system kids in the area of science, technology, engineering and mathematics (STEM). His aim is to encourage academic and professional career paths in gaming, and inspire "at risk" youth to enroll in college. Jaurez also sits on the board of his local church and assists with outreach programs and ministries.Peilin Fu, National University Peilin Fu, Ph.D., received the Bachelor of Engineering in Automatic Control from Qingdao University of Science and Technology, China, Master of Engineering in Electrical Engineering from Ocean University of China, China, and Ph.D. in Systems Engineering and
fields [2]. This increasing demand for science and engineering employeeshas led federal and state governments to emphasize career and technical education (CTE) insecondary and postsecondary institutions [3], [4]. Traditionally, CTE instruction has primarilybeen in the arena of one or two-year postsecondary institutions [5]; further, there has been anincreasing focus on CTE in K-12 education [6]. In contrast, little evidence exists of CTE trainingin the traditional sense completely at four-year universities, with the exception of transferagreements from community colleges into four-year institutions [7].Through an innovative five-week manufacturing summer camp, the author’s home university,Austin Peay State University (APSU), has provided on
reverse desertification over a large area including a mineral and water source for theplants.”IGE as international summer school (IGE-USA)In the summer of 2012, IGE-GER was expanded as an international course offered during thesummer semester at TU Darmstadt (we will refer to this course as IGE-USA for simplicity). Thiscourse is also interdisciplinary with students from mechanical and process engineering, chemicalengineering, and materials science engineering from two American universities, South DakotaSchool of Mines and Technology and Virginia Tech, and mechanical and process engineering,business engineering, and economic engineering from TU Darmstadt. Students are in groups of10-12 with a mixture of American and German students and the many
are automated and how sensors and actuators are incorporated into real-life applications. • Educate graduating senior undergraduate students to become mentors for rising senior students who are working on building an automated system. Currently all mentoring is done by the instructor and TA, and additional mentors would help to alleviate bottlenecks while teams are designing and building of the automated system projectAcknowledgementsThis material was supported by the National Science Foundation’s Transforming UndergraduateEducation in Science, Technology, Engineering, and Mathematics (TUES) Program (Award no.1246072). Any opinions, findings, and conclusions or recommendations expressed in thismaterial are those of the
Structured Redesign of a Circuits Laboratory Amardeep Kaur and Theresa M. Swift Electrical and Computer Engineering, Missouri University of Science and Technology, Rolla, MOIntroductionLaboratory (lab) experiments are an inherent part of the engineering curriculum. It is a well-established principle that students learn best by hands-on experiences. The lab experiments areused to provide students with practical skills but these courses also play an important role ofproviding necessary engineering skills like teamwork, formal report writing and trouble-shooting(Davies 2008, Al-Bahi 2007, Krivickas and Krivickas 2007, Feisel and Rosa 2013) in addition toproviding best safety practices and
advanced VR technology to bridge the STEM skillgap is the VOTE (Virtual reality based Online Technology and Engineering) platform with the AVML(Advanced Virtual Manufacturing Lab, [5, 6]) as the first VR module for teaching students the principlesof CNC milling & turning and providing them with VR training on these advanced machines (Figure 1). Figure.1: (LEFT) AVML; (RIGHT) VPL (Virtual Physics Lab, another VR module)The AVML includes advanced multimedia lectures delivered using near-photorealistic intelligent virtualtutors and hands-on training on near-realistic virtual CNC milling machines and lathes. Software modulesused in the AVML include: an object-oriented scene-graph engine for displaying and navigating in 3Denvironments (this
jparicio@uconn.edu Storrs, CT, USA paul.spirito@uconn.edu Abstract—This paper describes the design and During this important phase, it is essential in addressingimplementation of AI techniques to help engineers and designers challenges such as flexibility, durability, and integration ofalike narrow down the implementation of functional design electronics into soft materials. Over time, organizations haveelements, and how those can be translated into conceptual carefully chosen visualization tools to support the phase of ideasketches and 3D models. AI can help
system can determine which students may be at risk ofperforming badly on the final exam, for example. This will in turn enable software to sendtargeted instructional materials to struggling students. Additionally, this may help an instructor toadapt lecture materials based on the classes’ needs.References [1] Jacob O. Wobbrock , Andrew D. Wilson , Yang Li, Gestures without libraries, toolkits or training: a $1 recognizer for user interface prototypes, Proceedings of the 20th annual ACM symposium on User interface software and technology, October 07-10, 2007, Newport, Rhode Island, USA [2] Levent Burak Kara, Thomas F. Stahovich, An Image-Based, Trainable Symbol Recognizer for Hand-drawn Sketches Computers & Graphics 29(4): 501
personally painful. So far our students(both on-campus and remote) are very appreciative of this resource. All agree, though, that novirtual experience can fully replace hands-on learning: it must be retained. We also recognize thevalue of occasional face-to-face interaction for effective problem solving and clarification ofmisunderstandings on the material, etc. The key idea is that we can retain these clearly desirableelements as per a traditional class while at the same time leveraging the resources offered by thetechnology to ease the burden on the student without sacrificing quality.Since we are still new to the technology that enables the VSC, there will likely be otherunforeseen applications that will benefit engineering education. For
curriculum. However, in FlightDynamics and Control I and II courses, there are typically no hands-on laboratory or co-curricular elements that demonstrate engineering and scientific principles/theories using real-world problems [1-2]. Such conventional curricula norms in Flight Dynamics and Control I andII courses are challenged in this work.KU student evaluations from 2005-2010 consistently point to the lack of real-world experiencesin many fundamental engineering disciplines. Many laboratory and design experimentsunfortunately take place within the confines of closed space, using pre-defined inputs andoutputs, and a monotonous approach to the completion of an experiment. The majority of classprojects are limited to theories and mathematical
Paper ID #21387REU Site: Sustainability of Horizontal Civil Networks in Rural AreasDr. Shannon Bartelt-Hunt, University of Nebraska, Lincoln Shannon Bartelt-Hunt is a Professor in the Department of Civil Engineering at the University of Nebraska. She received her Ph.D. in Environmental Engineering from the University of Virginia and her research focuses on the fate and transport of biologically-active organic contaminants in agricultural systems and water reuse in agriculture. She is a faculty fellow of the Daugherty Water for Food Global Institute at the University of Nebraska and maintains a courtesy appointment in the
50% of their ETDs. Allother colleges Withhold or Restrict access to more than half, with the College of VeterinaryMedicine placing access restrictions on over 80% of its ETDs. Page 5.253.8Breaking out the data a final time, departments within the College of Engineering are examined.Abbreviations are used as follows:AOE - Aerospace and Ocean EngineeringBSE - Biological Systems EngineeringChE - Chemical EngineeringCEE - Civil and Environmental EngineeringECE - Electrical and Computer EngineeringESM - Engineering Science and MechanicsISE - Industrial and Systems EngineeringMSE - Materials Science and EngineeringME - Mechanical EngineeringMME
interdisciplinary courses and conducted engineering education research for the past 24 years. Dr. Miller has received three university-wide teaching awards and has held a Jenni teaching fellowship at CSM. He has received grant awards for education research from the National Science Foundation, the U.S. Department of Education FIPSE program, the National Endowment for the Humanities, and the Colorado Commission on Higher Education and has published widely in the engineering education literature.Tamara Moore, University of Minnesota Tamara J. Moore is an Assistant Professor of Mathematics/Engineering Education and co-director of the STEM Education Center at the University of Minnesota. Dr. Moore is a former
Page 8.344.2within problem constraints. While the approach to working with materials and technology Proceedings of the 2003 American Society for Engineering Education Annual Conference & Exposition Copyright © 2003, American Society for Engineering Educationcan be quite different, the value placed on creativity can be enhanced by interdisciplinarycollaboration, echoing Perkins (1988) assertion that when disciplinary boundaries arecrossed so too does the possibility for invention. Faculties often assume their students develop skills in creative thinking implicitly asa result of performing in their curricula. Students, however, may struggle with creativeproblem solving. This frustration seems to be exacerbated when
previously. His research interests include Mixed-signal/RF circuit design and testing, measurement automation, environmental & biomedical data measurement, and educational robotics development.Mr. Rogelio Casas Jr, Texas A&M University Rogelio Casas Jr. was an ESET student at Texas A&M University and graduated in the Fall of 2018. He was the Project Manager throughout the project and is currently working at General Motors in Austin, Texas as a Software Developer. He plans on continuing his education through hands-on training and a potential Masters in Computer Science.Mr. David Anthony Cervantes David Cervantes graduated with a B.S degree in Electronic Systems Engineering Technology from Texas A&M
student assessments of theclassroom teaching materials and presentations on a lecture-by-lecture basis.I. IntroductionThe author began studying multimedia systems techniques several years ago to support the firstelectrical circuits course in electrical engineering. The next eight sections below discuss thestatus and plans for the suite of techniques that have been or are being developed. The finalsection gives the lessons learned to-date and the conclusions. The remainder of this sectiondescribes the circuits course.Enginr 124 is a three-credit, three-lecture-per-week course on circuit analysis that coverstraditional material and uses a standard text.1,2 The course description is shown in Table 1. Thissingle course serves both EE majors and other
Paper ID #241872018 ASEE Zone IV Conference: Boulder, Colorado Mar 25Development of Laboratory Experiments for Protection and Automation inMicrogrid Power SystemsMr. Eric Osborn, California Polytechnic State University, San Luis Obispo Eric is an electrical engineering graduate student at Cal Poly San Luis Obispo, with a concentration in power systems. His thesis focuses on creating laboratory-scale power system protection and automation experiments for students.Dr. Ali O. Shaban, California Polytechnic State University, San Luis Obispo Professor Shaban received his Ph.D. degree in Electrical Engineering from Oregon State
assignment.IntroductionMany effective education systems require submission of a student’s work as a methodof evaluating a student’s understanding of the material. Currently, the main option forshowcasing a student’s knowledge is physical: a paper hand-in assignment.Alternatively, a student might be asked to submit an assignment online. Questions havebeen raised about the environmental impact of these assignment submission methods[1]. Many professors and teachers also want to give students assignments in the formthat will enable students to retain the information in the assignment with greatereffectiveness. Thus, learning efficacy is a secondary quantitative objective of this projectand its dependence on assignment submission method was investigated.Paper is often
). Page 26.157.10Figure 7. The PMT and gimbal mount separate (top) and assembled (bottom)The first PMT lens cap that was printed did not fit as securely as intended, so that part wasrebuilt. In fact, several versions of that part were built in the same run so that they could each betested and the best fitting part selected. Given the small volume (and associated material cost)this seemed a reasonable approach to get the part in the students’ hands quickly. The nature ofthe VFlash build process, also meant that there wasn’t a time cost associated with the additionalversions to test, since the build time for the VFlash scales with the height being built, not thepack density of individual layers. One of the design variants provided a suitable fit to