; Exposition Figure 1. multi-robot inspection cell control architecture This paper is the result of an advanced PLC class project for master students in mechatronics. In the course, this assignment is designed to allow groups of students to think creatively, and gain experience in authoring research publications. The rate of papers that are published is about 40%, as previous publications show [7-11]. Typically, each paper is written by a group of 4 or 5 students. Since this is a new experience for most students, the assignment is divided into three stages. First, a project proposal is due a few weeks into the course (week 3 of 15). In this stage, students form groups, brain storm a project, then write a proposal in the form
A1420 An SDL (Simple Description Language) Analyzer Robert J. Borrmann, Ph.D. Professor of Electrical and Computer Engineering Manhattan College New York CityAbstractSecond-year students in Manhattan’s four-year Electrical Engineering and ComputerEngineering programs are introduced to digital circuits in a one-semester 3-credit courseELEC-229. This course includes a laboratory component in which students design andbreadboard simple circuits. While the course includes preliminary coverage of VHDL(Very High Speed
Nodes," ASEE Annual Conf. Proceedings, June 1992, pp. 1107-1111.[7] Orfali, R., Harkey, D., and Edwards, J., "Essential Client/Server Survival Guide," Wiley & Sons, 1994[8] Shay, William, "A Software Project for a Data Communications Course," ACM SIGCSE Bulletin, Vol. 23, Number 1, March 1991, pp. 15-20.[9] Smith, Wayne, "The Design of An Inexpensive Undergraduate Data Communications Laboratory," ACM SIGCSE Bulletin, Vol. 23, Number 1, March 1991, pp. 273-276.[10] Stevens, Richard, TCP/IP Illustrated Volume 3, Addison Wesley, 1994.[11] Tanenbaum, A. S., "Computer Networks," (Third Edition), Prentice-Hall, 1996.SUB RAMAKRISHNAN is an Associate Professor of Computer Science at Bowling Green State University
given way to an increasedlocal innovative policy and entrepreneurial climate that have generated significantcomputer, telecommunications and more recently, pharmaceutical and biotechnologyoutputs.While the it is unclear as to whether it is the local state governments or the privateentrepreneurs who have been more relevant to this process, most people agree that theabove two actors, large and small firms, universities and government laboratories have allhad a part to play.It has been advocated since long ago that government, private sector, universities andresearch institutions are important parts of a larger system of knowledge and interactionsthat allow diverse actors with varied strengths to come together around common broadgoals for
report, and the writing. The identity of authors andreviewers were fully disclosed. However, since the class had on-campus and off-campusstudents, many of the students did not know each other well. Finally, the groups were asked toreflect on the peer reviews they received and to explain how they changed their draft based onthe feedback. The peer-review activities reported in this paper were implemented in Fall 2015(for 3 progress reports) and Spring 2016 (for 2 progress reports).Capstone Design CourseThe capstone design experience in mechanical engineering at Old Dominion University is a two-semester face-to-face course with 40-50 students per semester. In each class, there are 4-6 seniordesign projects including regional and national student
children in elementary- and middle-schools with a high Hispanic population (greaterthan 90%) to help them prepare for the FIRST® LEGO® League tournament.Service Learning (SL) is a teaching and learning strategy that integrates meaningful communityservice with instruction and reflection to enrich the learning experience, teach civicresponsibility, and strengthen communities. SL is more than volunteering because it has acurriculum associated with it. SL is not an internship because it is designed to meet specificcommunity needs [3]. In the robotics course at UTSA, a part of the curriculum are the labs inwhich students use LEGO® Mindstorms® to solve and/or simulate real-world problems (e.g.,parallel parking, localization, line following). The
rover cameras will be displayed. The status of the robber, including camera viewing angle, battery life, external temperature, wheel rotational speed, current, etc. will also be displayed. A human operator can also use this device to send commands to the rover. Figure 10. Hand Held Base Station3. Conclusions1. Students garner real-world experience in the design of an operating system and high- level application programs for a smart rover robot application.2. Students learn to use sophisticated software
under the NSF S-STEM program, Award #1154096(2012-2016) and Award #1565060 (2016-2020) for the AugSTEM Scholars program. Thefaculty and staff team that developed the current program chose to focus on students who werewithin their last five semesters of completing their STEM degrees. They had observed asignificant number of students who persisted in STEM majors, while also carrying an extensivenon-academic workload in order to shoulder the financial burden of attending college. Theirworkload not only affected their ability to excel academically but also interfered with theirability to take advantage of high impact practice (HIP) experiences such as undergraduateresearch. Hence the program was designed to provide financial support combined with
Engineering at Drexel University. She specializes in geotechnical engineering, geoenvironmental engineering, and sustainability and resilience of infrastructure. She researches and implements evidence-based teaching strategies in engineering education and has extensive experience with recruitment and retention of under- represented students. Dr. Gallagher also participated in the development of the NSF ADVANCE funded Executive Leadership in Academic Technology and Engineering (ELATE) program at Drexel University. ELATE is a national leadership development program to advance senior women faculty into leadership. c American Society for Engineering Education, 2018 Strategies for Flipping Geology for
:00 0.30 286.54 9:20:05 122.39 9:40:00 0.00 425.13 9:20:39 FALSE 9:20:49 TRUE 9:22:05 152.32 9:24:05 157.06 9:26:05 161.63 9:27:49 FALSE 9:28:05 161.78 9:30:05 152.13Ideally, CLICS is used by instructors in a range of disciplines for extended homework,laboratory experiences or projects. It is expected that these experiences require 21st century skillsto complete rather than simple plug and chug applications. It is the higher-order critical thinkingskills that are expected to be enhanced from using relevant, real-world data. In the Fall 2014semester, several classes considered the use of LED lighting and daylighting
lighting technologies for buildings, communications for energy systems, water use in hydraulic fracturing, environmental impacts of energy production, turbomachinery for energy use and its reliability.Dr. Mark Weichold P.E., Texas A&M University Dr. Mark H. Weichold, Regents Professor and Halliburton Engineering Global Programs Professor, is an electrical engineer and has worked for General Dynamics Ft. Worth Division, Motorola in Austin, TX and the U.S. Army Electronic Technology and Devices Laboratory in Ft. Monmouth, NJ. He joined the Electrical Engineering faculty at Texas A&M University in 1982 and now holds the rank of Professor. In January 2007, he became Dean and CEO of Texas A&M University’s branch
. Page 5.478.1Our presentation is not intended to be a tutorial in the use of any one particular desktop UNIXenvironment. Rather, we are interested in the ability to accomplish our work on a variety ofsystems with (more-or-less) the same paradigm, with the added benefit that the product of ourwork can be shared easily with others through the use of portable code and architecture-independent file formats.BackgroundWe bring to this presentation a long familiarity of UNIX systems, having nearly 30 yearscombined experience with them between us. Our first exposures to the UNIX system began inthe mid-1980’s when one of us (DWF) went to work for AT&T Bell Laboratories where AT&TUNIX Version 7 ran on a timesharing DEC PDP 11/70; access to this
. It is shown that even though all of us proceed througha process of more or less continuous adoption of aspirations, this process needs guidance.Aspiration, inspiration, and perspiration in combination may be used to construct a frameworkupon which the externalized model is based. Discussion of the interaction of aspiration,inspiration, and perspiration easily justifies the conclusions presented. The concepts areillustrated through numerous examples, some taken from personal experiences of the author.I. IntroductionUpon entering the academic environment, new faculty members are conceptually introduced tothe burdensome challenges of tenure and promotion, if not to their reality. Picking just the firstof these, from the employees point of view
in Computer Aided Design (CAD), Graphics I and Graphics II. The beginning course,usually for first term freshmen, covers the basics of parametric solid modeling, design intent,engineering drawings with proper dimensioning and views, and assemblies. In addition, this firstcourse covers hand sketching and visualization skills. In the second course the students developand practice more complicated solid modeling challenges including table driven configuration,surface modeling, photo-realistic rendering, motion studies and animation. The two courses aredesigned to prepare the students for courses in manufacturing, Finite Element Analysis (FEA),Modeling and Simulation, and for the fourth year Capstone project.Both courses utilize SolidWorks, a
, MechanicalLaboratory Technician, Mr. Peter Bennett, Mechanical Laboratory Machinist, and by JasonMisiaszek in the recording of data.Bibliography:ALAN K. KARPLUSAlan K. Karplus is Professor of Mechanical Engineering at Western New England College, Springfield,Massachusetts. He has a Bachelor’s degree from Tufts College, a Master’s degree from Iowa State University and aPh.D. from Colorado State University. He has been involved with the freshman engineering program, coordinatesthe senior mechanical engineering laboratory program, teaches Materials Science and supervises M.E. SeniorProjects. His interests include materials and design. He is a member of ASME and ASEE. He has contributed tothe National Educators’ Workshop and ASEE Annual Conference for several
“inverted” course formats werecreated for two core computer engineering classes: a sophomore-level Introduction to DigitalSystems Design course, and a junior-level Microprocessor System Design and Interfacing course.Both of these are 4-credit hour courses that include an integrated laboratory. In the experimental formats, the basic lecture content was delivered asynchronously viastreaming video, while collaborative solving of homework problems accompanied by a detailedwalkthrough of their solutions was done synchronously (i.e., during scheduled class periods) –which we refer to as directed problem solving (DPS). Traditional assigned (outside-of-class)written homework was replaced by collaborative problem solving by students working in smallteams
of extending the software capabilities through programming.A few students will want to specialize in computing. For example, some students will becomesoftware developers in the context of engineering applications. These individuals will requiremore education in computing, perhaps a minor or even a double degree. The introductorycomputing course in engineering should not attempt to redirect these students away fromcomputer science; rather, it should open the door.Since valid arguments can be made for the five areas of need listed above, it becomes a challengeto design an introductory computing experience that balances and, at least in part, satisfies theneeds. We have attempted to meet that challenge at the University of Colorado
questionnaire was designed and given to physicians in variousspecialties, of different age groups and with varying degrees of work experience. Thesurvey included questions related to online medical systems, and physicians’ willingnessto use systems like PIMS. The following is analysis of the results from this survey. Fromthese results it can be understood that 75% of physicians accept to use as well asencourage patients to use this system. Further analysis of the gathered data reveals that83% of physicians who have ten to fourteen years of experience showed willingness touse PIMS. However, 60% of physicians with twenty or more years of experiencedeclined the use of such system. This analysis is presented in Figure 4. 18 16
Information Literacy and Academic Writing Skills Through the Collaborative Design of an Assessment Task for First Year Engineering Students," Australian Academic & Research Libraries, vol. 46, pp. 164-175, 09// 2015.6. P. K. Agrawal, "Integration of critical thinking and technical communication into undergraduate laboratory courses," in Proceedings of the 1997 American Society for Engineering Education Annual Conference and Exposition, 1997.7. H. Idrus, A. M. Noor, and M. N. R. Baharom, "Motivating Engineering and Technical Students to Learn Technical Writing by Inculcating Lifelong Learning Skills," International Journal of Learning, vol. 18, pp. 191-201, 12// 2012.8. J. Armarego, "Enhancing Writing Skills in IT Students
semester of the junior year. This is a 4-credit course which concentrates primarilyon reactor statics. The outline of the course is in the Appendix. There are 2.5 hours ofclass room time and a 2.25 hour laboratory per week. The class size is usually small withabout 12-15 students. Much of the material taught in this course is required knowledgein several of the senior-level courses reactor systems, thermal-hydraulics, fuel cycles, se-nior design. Students enter this course after completing an introductory course in neutronphysics and elementary reactor theory through one-group di usion in homogeneous mediaand point reactor kinetics with a C grade or better. They typically will also have had asemester course in di erential equations and will be
time I was a member of the Board of Managers of the Association of Engineering Societies, representing the Engineers Club of St. Louis. At a Board meeting of the Association in 1883, I describe the work that I was doing for myself and offered to do it, somewhat more elaborately and free of charge, for the journal of the Association, if the Board would agree to publish it. This Board consented to do and the Index was begun... all indexing was done by professional engineers of more or less practical experience. The theory of the Index from the start has been: 1. to index only articles of permanent value. 2. to give such a short, concise, but adequate description of the article as would enable to determine
cofounder and director of Lehigh University’s Masters of Engineering in Technical Entrepreneurship (www.lehigh.edu/innovate/). He joined the Lehigh faculty in 1979 as an assistant professor of Mechanical Engineering, was promoted to associate professor in 1983, and to full professor in 1990. He founded and directed of the Computer-Aided Design Labs in the Mechanical Engineering and Mechanics Department from 1980 to 2001. From 1996 to the present, he has directed the University’s Integrated Product Development (IPD) capstone program (www.lehigh.edu/ipd). The IPD and TE program bring together students from all three undergraduate colleges to work in multidisciplinary teams on industry-sponsored product development projects
show howenergy dissipation during impact is related to rebound heights, to the time intervals betweenconsecutive impacts, and to the coefficient of restitution; next, we discuss three experimentalmethods that are suggested by the analytical results obtained; finally, we design and carry out teststhat use these methods to determine the energy dissipated by a bouncing tennis ball. Page 15.1331.22. Mechanics of a bouncing ballWe consider a tennis ball of mass m. We suppose that, at time to = 0, it is dropped from a height h= ho above a horizontal surface that is both rigid, flat, and located at an elevation h = h1 . Afterfree fall, the ball
of relationship shouldbe included as part of our academic programs. Academic administrators, eager to join thebandwagon, have become increasingly more supportive of these programs and in many cases areactively promoting meaningful international technical experiences for students and faculty alike.Students are also enthusiastically embracing the idea of these experiences if they can be includedinto their academic program without unnecessarily extending their schooling or intruding intotheir summer employment or internships.Recognizing the increasing value being placed on international experience, this paper will reviewthe steps involved in starting a successful international exchange program that is focused onengineering and technical
the engineering major [2]. As a result,programs that expose students to engineering experiences and/or projects early in their collegestudies might have a greater chance of both enticing students to persist and interesting them inspecific sub-fields of engineering.In the paper, the authors will present a project that is motivated to explore how to improve STEMlearning outcomes and retention of engineering majors by introducing hand-on projects, whichcombining STEM learning with entrepreneurship, into the freshman engineering curriculum(MEEN 1310-Computer Based Graphics and Design I and MEEN 1320 Fundamental ofNumerical Method). This project is supported by HP Catalyst Initiative to develop a new STEM-preneur learning environment through
entrepreneurship courses throughout the entire academiccareer, allowing enrollment in the entrepreneurial courses in all majors, changing coreengineering, science, and technology courses to include problem based learning and openended projects, and developing multi-discipline capstone design experiences withentrepreneurial components. In addition, program implementation and acceptance by thestudent population is largely dependant upon student involvement and enthusiasm. Assuch, a key component of a successful program will provide incentives for fundedprojects and activities that include requiring student enterprise project submissions forstudent e-team competitions in the senior design sequence, allocation of funds to supportstudent involvement in
professionalcompetencies in comparison to studying in a conventional engineering curriculum.Wei Xue7 introduced a hands-on, project-based experiential learning module into a course onmicro-and nanotechnologies for mechanical engineering students. This module was combinedwith the existing theoretical course structure and the laboratory activities were designed tointegrate textbook theoretical principles with real fabrication and characterization processes. Thishands-on experience enabled the students to obtain a better comprehension of the classroomprinciples. Based upon student feedback obtained via surveys, it was learned that theintroduction of this experiential, design-oriented module was very effective in helping studentsunderstand concepts related to micro
promoted in four ways2: 1. Mastery experiences, where students demonstratemastery by overcoming obstacles through effort. We promote mastery by using hard problems,and emphasizing explanations. 2. Reinforcement by seeing peers achieve mastery. We usecooperative learning, teamwork, and class presentations to create a learning environment inwhich students see the mastery experiences of peers. 3. Social encouragement. Students wererepeatedly given encouragement that the problems are hard, but can be solved with hard work. 4.Students must learn to manage emotional and physical reactions, such math anxiety, or the knotin the stomach when facing a challenging problem on a test.Transfer requires learning with understanding3. To achieve this we have the
Table 2 show an insignificant difference in the means of both groups,however, the p-value is approaching the limit value to have a significant difference sothat performing a more conservative statistical analysis there could be a greatersignificance, even so, it can be observed that the civil engineering group has a highermean than architecture students, an expected value based on the nature of both careers.As it is known, civil engineering is a technical career, so the elaboration of their work iscolder and objective, a characteristic that makes them more susceptible to the assertiverole of masculinity. On the other hand, architects see their designs more emotionally,they look to improve the experience of those around them, and mainly the
Professor of Civil Engineering at Quinnipiac University (Hamden, CT, USA) with expertise in ecological engineering and green stormwater infras- tructure. Her teaching is grounded in experiential learning and service-learning experiences. She serves on the executive board of the Mill River Watershed Association and steering committee chair of the Mill River Urban Waters Initiative. Her scholarly collaborations span a variety of entities including both public and private agencies, educational institutions, and non-profit organizations. ©American Society for Engineering Education, 2023 Community-university-government partnership to advance environmental justice and address river