the cost of power disruption to customers. In order to capture the value of outage avoidance to various electric customers, a survey can be performed. The survey needs to be designed to capture the impact of an outage based on a variety of durations, in addition to the times of day, week, and year. Including time as a variable helps determine the indirect costs that customers experience, especially within the residential sector. Forexample, indirect costs to customers may be greater if an outage of significant duration were tooccur in the winter, whereas, the indirect costs may be lower during the summer.The Department of Energy’s Interruption Cost Estimator (ICE) can also be utilized to derive anestimate of interruption costs for Puget
Experience Using Robotic Systems Course Work AIAD Capstone Design Research Customer Base Controls iRobot HAGAR Design Competition Military Mechatronics Army Res. Lab BUGS Conferences Industry Microprocessor Foster-Miller Laboratory Law Enforcement Figure 4 Emerging Facets of the Robotics ProgramContributions: Program DevelopmentIn addition to teaching non-technical/ non-engineering majors about electronics and systems byutilizing robotics and
processing applications (digitalwaveform generators, digital audio effects), DFT/FFT algorithms, FIR digital filter design andIIR digital filter design.EGR 366, Digital Signal Processing, is a three credit class which met for three 50-minuteperiods a week. The mode of instruction employed active learning in which students wererequired to read the topic of the day prior to coming to class and the class period was utilized toclear concepts, emphasize important points and to study practical applications. After the initialbackground material was covered in a conventional classroom setting, the second (and larger)portion of the semester was spent in the electronics laboratory, which is furnished withcomputers with the LabVIEW software.The Dordt College
three main curricular components, namely: a) Classroom activities (classes) – students are required to complete at least 144 credits, with each credit2 being equivalent to a 50-minutes lecture or supervised laboratory experiment. In the Institute’s Catalog [8], every year the CTP publishes a list of the eligible courses offered. As of 2022, 41 courses are listed, out of which: i. two are offered as optional undergraduate classes, one by the Electronics Engineering and the other by the Mechanical Engineering Undergraduate Program; ii. 39 are offered as graduate courses, out of which 19 are from the Electronics and Computer Engineering Graduate Program, 19 from the
Biomechanics II course is also supported with a 1-creditBiomedical Engineering Laboratory course with a 4-hour time block that meets 1x per week.A. B. Figure 1. Impactful biomechanics projects teach kinematics of joints, kinetics and balance using motion analysis and force plates. A) Students utilized Kinovea to analyze the football throw for a typical 2-D dynamics using motion analysis software. B) Students learned kinetics and balance using force plates.The EML module was designed to allow students the chance to design and execute a study in which theystudied kinetics and kinematics of the human body in motion. They were introduced to motion
professional development material (Berman &McLaughlin).5Professional Development – Year One (2005)The first year professional development was designed by the NCETE BYU team in the fall of2004. The framework for the professional development, as identified below, was shaped by thepreviously listed goals and from known best practices of professional development as identifiedin professional development research and related literature. This framework included thefollowing: 1. The professional development program was to include eight full day sessions during the spring semester (two days per month for four months) and a one week capstone experience in the summer (approximately 100 clock hours of professional development). 2. The project
curriculum in the Indian subcontinent countries is also very rigidwhich does not satisfy the needs for different categories of students. At the same time the setlaboratory experiments instead of open-ended project type laboratories do not enhance thelearning process. So the international accreditation, which makes the curriculum mutuallybeneficial to all party concerned, must be developed.A win-win co-operative agreement between the college of engineering and technology at OldDominion University and Rajagiri College under Mohatma Gandhi University, Cochin, India toflourish global engineering education has paid off. Rajagiri is benefited being able to begin anaccredited engineering program whereas Old Dominion University is benefited by attracting
aerodynamics, aircraft design and engineering education. American c Society for Engineering Education, 2021 Virtual Reality in STEM Education during COVID-19AbstractThe availability of virtual reality (VR) technology has opened up an avenue to bring threedimensional real-world experiences to students which may otherwise be inaccessible to them.The VR-based lessons provide opportunities for students to be engaged with complex conceptsthat can be visualized in three-dimensions (3D) helping them improve their understanding. Ateam of faculty at an HBCU has developed VR lessons in introductory Math, Biology, Physics,Aerospace Engineering and Electrical Engineering courses
evaluation of its effectiveness in teaching is presented.Introduction As most laboratory instructors will attest from direct experience, many or even mostcontemporary engineering undergraduates appear to have had limited instruction in the standardformat, composition, and production qualities expected in laboratory reports. Indeed, sinceundergraduates encounter little primary practical or research literature, they will have had limitedexperience in even reading reports with the structure, quality, and clarity that should be expectedfrom engineering professionals. For examples, students are largely unaware of the importance ofa neat and orderly page design with uniform margins, descriptive headings, and distinc tiveparagraphs. Equally or
modified to include several instances of CAD-based heat transfersimulations that incorporate all three mechanisms of heat transfer. By introducing this conceptmid-semester, students will learn how to create CAD simulations around the time they should begenerating and selecting design concepts. Students will also be encouraged to learn throughtutorials so they may obtain the skills necessary to solve their specific problem.3. Encouraging teams to design experiments and use data to justify their designs.One of the goals of this improvement is to help students make the connection between conceptstaught in the lab and their projects. The course laboratory section will be modified to explain thedifferent types of sensors used in thermal systems
-engineeringmajors to electrical and electronic technologies that are encountered daily. The class isstructured as a three hour lecture course. Although some simple mathematical conceptsrequiring competence in high school algebra is required, the majority of the material strives forconceptual understanding of the underlying science of the specific technologies discussed.The course has three purposes:1. Students learn of the underlying scientific concepts of the technical tools used today2. Essays on the impact of specific technologies on society are assigned to students to encourage critical thinking3. Through discussions and technical problem-solving assignments, sufficient scientific literacy will be achieved meriting fulfillment of a non-laboratory
was to prepare students for subsequent success in pre-calculus and calculus. To accomplish this, we designed the course around four inter-relatedgoals. The first goal was to develop the students’ understanding of a topic of study that bringstogether engineering and mathematics, namely, quantifying and interpreting change. The secondgoal of this course was for students to develop their problem solving skills. We wanted studentsto improve their abilities to interpret problem situations and to persist in solving such problemsand to do so more independently than in high school. Along with this, our third goal was todevelop students' communication skills and abilities to work in a collaborative group. We wantedstudents to gain experiences and
, a new multidisciplinary teamassessment instrument was piloted during the Fall, 2006 semester with additional measures. Thisapproach allowed for a thorough assessment of the reliability and validity of the new instrument.The multidisciplinary assessment instrument data was also compared with independent measuresof the outcomes of the project to determine the effect of multidisciplinary team work.IntroductionIt is well known that multidisciplinary teamwork is a valuable part of engineering education andthat ABET requires engineering programs to document that their graduates demonstrate “anability to function on multi-disciplinary teams”2. Western New England College has a longhistory of incorporating engineering design into its laboratories
Paper ID #11385MAKER: Whack-a-Mole for PLC ProgrammingDr. Sheng-Jen ”Tony” Hsieh, Texas A&M University Dr. Sheng-Jen (”Tony”) Hsieh is Professor in the Dwight Look College of Engineering at Texas A&M University. He holds a joint appointment with the Department of Engineering Technology and the De- partment of Mechanical Engineering. His research interests include engineering education, cognitive task analysis, automation, robotics and control, intelligent manufacturing system design, and micro/nano manufacturing. He is also the Director of the Rockwell Automation laboratory at Texas A&M University, a state
would be lost, a more complexmodel would offer greater insight into how a game changes state. Deciding which game components andstates should contribute (and to what degree) to a score needs further work. 8Finally, educators may wish to introduce mathematical concepts from a game design and analysisperspective. Ultimately, scoring could provide an essential link between theoretical fundamentals andsoftware implementations.7. AcknowledgementsI would like to express my gratitude to the Air Force Research Laboratory (AFRL) in Rome, New Yorkfor providing a Visiting Faculty Research Professorship for the summer of 2007 and a subsequentextension grant. Research into wargame design and development methods
would be lost, a more complexmodel would offer greater insight into how a game changes state. Deciding which game components andstates should contribute (and to what degree) to a score needs further work. 8Finally, educators may wish to introduce mathematical concepts from a game design and analysisperspective. Ultimately, scoring could provide an essential link between theoretical fundamentals andsoftware implementations.7. AcknowledgementsI would like to express my gratitude to the Air Force Research Laboratory (AFRL) in Rome, New Yorkfor providing a Visiting Faculty Research Professorship for the summer of 2007 and a subsequentextension grant. Research into wargame design and development methods
would be lost, a more complexmodel would offer greater insight into how a game changes state. Deciding which game components andstates should contribute (and to what degree) to a score needs further work. 8Finally, educators may wish to introduce mathematical concepts from a game design and analysisperspective. Ultimately, scoring could provide an essential link between theoretical fundamentals andsoftware implementations.7. AcknowledgementsI would like to express my gratitude to the Air Force Research Laboratory (AFRL) in Rome, New Yorkfor providing a Visiting Faculty Research Professorship for the summer of 2007 and a subsequentextension grant. Research into wargame design and development methods
procedures including X-Ray safety, safe use of chemicals and cryogenic liquids, and in exercising safety in the general laboratory environment. 3. Constraint Management – The project provided an opportunity for the students to experiment with a variety of specimens. This helped them to gain a better understanding of the constraints of the systems and processes of Scanning Electron Microscopy and photogrammetry. 4. Programming and Automation – One of the important goals of the project was to reduce the amount of time and manual effort involved in the production of a 3D printed model from electron microscope images. This required evaluation of the practicality of opportunities to automate the process and
63164 NEW: Experiment Set-up NA3264 NEW: Matl’s Lab Experiments 83464 Diversity in Courses and Matl’s 5NONE Life Cycle Analysis:no abstracts 0A number of statistics may be of use for planning purposes. The topics themselves are of interest,as well as how many abstracts were submitted. Attendance figures have not yet been acquired.Activities, laboratories and experiments of various sorts appear as a mainstay over the years.These efforts are above and beyond our interaction with NEW. These experiments have beenfocused by education level (K-12, K-20, lower div., upper div.), but have appeared in all fouryears.Curricula
Tanyel is a professor of engineering at Geneva College. He teaches upper level electrical engineering courses.Prior to Geneva College, Dr. Tanyel taught at Dordt College, Sioux Center, IA from Aug. 1995 to Aug. 2003. Priorto 1995, he was at Drexel University, Philadelphia, PA where he worked for the Enhanced Educational Experience 4for Engineering Students (E ) project, setting up and teaching laboratory and hands-on computer experiments forengineering freshmen and sophomores. For one semester, he was also a visiting professor at the United ArabEmirates University in Al-Ain, UAE where he helped set up an innovative introductory engineering curriculum. Dr.Tanyel received his B. S. degree in electrical engineering from
recognizing this need; a variety of programs currently exist toenhance the pre-college pipeline to engineering by providing early education opportunities onuniversity campuses. Page 6.987.1Proceedings of the 2001 American Society for Engineering Education Annual Conference & ExpositionCopyright 2001, American Society for Engineering EducationThe CURIE Academy at Cornell University is a pre-college program designed to provide a broadengineering experience to 40 high school girls—students who excel in math and science, havebroad interests, and show promise as team builders and/or leaders—during one week in thesummer. The program has been in
antennas intended to receive signals from single hertz toapproximately 100 hertz. The intent of the physics students research was to detectand analyze signals, especially those of terrestrial origin such as the Schumannresonances, lightning resonances, and the postulated electromagnetic signals thatare pre-cursors to earthquake activity. Purdue Electrical Engineering Technologystudents designed amplification and active filter circuitry for the IUS physicsstudents to use in their research. The Purdue students did this as a part of their RFand Power Electronics class. The relationship between these two universitiesrespective programs proved to be mutually beneficial. The Purdue students hadthe experience of designing and fabricating a device which
. These successes led the faculty to propose a project to the Innovative TechnologyExperiences for Students and Teachers (ITEST) program sponsored by the National ScienceFoundation (NSF) focused on increasing teacher understanding and use of engineering designthrough the development and delivery of authentic experience-based curricula. The project hasas a goal of promoting junior high and high school student interest, skills, knowledge, and careeraspirations in engineering through authentic engineering design activities related to buildingautomation. This goal is being accomplished through several objectives: Increasing teacher use of engineering design and product development process Increasing student understanding of engineering
/10.30935/scimath/9642[25] Wu, W., Hartless, J., Tesei, A., Gunji, V., Ayer, S., & London, J. (2019). Design Assessment in Virtual and Mixed Reality Environments: Comparison of Novices and Experts. J. Constr. Eng. Manag., 145(9).Appendix A:Pre-Experiment SurveyBackground 1. Do you suffer from motion sickness? a. Yes b. No 2. Do you want to participate in this study? a. Yes b. No 3. Select your gender: a. Female b. Male c. Non-binary d. Other 4. Would you define yourself as a visual learner? a. Yes b. No 5. In which of the two situations do you feel learning to be more effective for you? a. An interactive and collaborative learning
observations of the STEP Fellows.• Review of journals maintained by the STEP Fellows of their experiences within the high schools.The evaluation was specifically designed to analyze the types of connections formed betweenproject organizations and stakeholders, and to assess changes in quality and quantity in theseconnections.Original Program Stakeholders and ObjectivesAnalysis of the original goals, objectives and anticipated outcomes of STEP indicate threeoriginal primary stakeholders—the graduate Fellows, the teachers, and the high school students.The basic objectives and anticipated outcomes, defined by stakeholder, were:• For Graduate Fellows: o Objectives: To train in educational pedagogy at Georgia Tech, and gain actual
obtain research experience and become confident and motivated to pursue their graduatestudy: Research activities: Combined with students’ interest and background, each WIECE student was associated with a specific research project and she performed research directly supervised by the author. One student worked on low-power logic circuit design and the other one worked on reliable SRAM schematics and layout optimization. The students attended weekly research meetings with author’s graduate students and attended research discussions and presentations. Professional development activities: the WIECE students were engaged in many aspects of professional development, including preparing
competition in detail, including goals,implementation, and challenges. The paper also discusses the challenges introduced by theCOVID pandemic and how the event was moved to a virtual platform to ensure social distancing.Finally, lessons learned and future plans are presented. IntroductionIt is currently well understood that team competitions are an important component of engineeringeducation1-3 and support education in teaming, communications, leadership, design and open-ended problem solving. While classroom and laboratory learning are the backbone of engineeringeducation, extracurricular competitions, especially those that involve teaming, are an excellentway to augment learning. Not only does competition
Microrobotics byworking on multidisciplinary projects of mutual interest at various levels. This paper discussesour experience in teaching microrobotics by designing multidisciplinary projects forundergraduates and their integration with research and graduate students. It also discusses thebroader impact of these activities on various levels of students. The activities can be categorizedin three levels: undergraduate teaching, graduate research, and clubs and organizations.This paper explores our experience in developing these projects and related research, includingour lessons learned so far, and our plans for the future. Some statistical data are also provided toshow the broader impact of these multidisciplinary microrobotics teaching and research
the experience of the authors who withoutexception were involved in teaching.Computer, Chemical, Electrical, Industrial and Mechanical Engineering, ComputerScience and Mathematics -- Papers in this category were grouped under six themes:Laboratories, Traditional Course Support, First Year Chemical Engineering Courses,Web Course Support for Problem Based Leaning, Large Course Support, and A NewCurriculum. Most of the reviewed papers dealt with the use of the World Wide Web toincrease access as the educational improvement. However, interestingly, a couple ofpapers suggested that the use of the web not only increases access to the physical orsimulated laboratory experiments but laboratories in a closet could actually decreasecosts since
material properties [2].Once the prescribed laboratory exercise was completed, students began to work on the first oftwo projects. The first project was referred to as the mini project. The goal of the mini projectwas to have the students receive instruction and hands on experience with foam shaping, creatinga splash, and using gel coat. Students also gained first-hand knowledge on the impact of draftangles and tool surface finish on their part. The thought was that, once the students had gainedthis experience they would be more effective in the second project, named the major project.This project was to create a part of their choosing while selecting and justifying the materials andmanufacturing methods to do so [3], [4].Unfortunately, the mini