.• Network media.• Routers, Brouters, Gateways.• Packet switching.• Client server systems.Lachowicz provides a detailed description of the initial development of the NIM unit 5.The students work in an environment that simulates, as close as possible, a commercialenvironment. One part time student, working in the field of computer and network supportwrote: “I am often asked by staff at work what I’m actually doing at Uni, and how it correlates to work which I do there (network engineering and PC support), however really there is little in common. The material faced during CIM was exactly like a real live situation (which I guess was the desired aim) and this
visualization system in subsequent years as exercises for Page 10.5.2transportation, hydrology, structural design, and senior design projects are devised. Inaddition, this same freshman course will be using the 3-D visualization system for therequired statics course that they will take in the Spring 2005 semester. It is anticipatedthat the required mechanics of materials course will be supported with the visualizationsystem in the future. It is anticipated that the current surveying (freshman-level, 2nd semester) andtransportation (sophomore-level, 3rd semester) courses will be revised over summer 2005to be a more tightly integrated class sequence
, which provides students with knowledge and experiencein extremely competitive environment, creates critical thinking skills, and promotes real-timedecision makers.5,6The objective of AET program curriculum is to combine the solid foundation in mathematics,physics, and chemistry with fundamental knowledge of the course materials and real-worldtechnological practices. The majority of the courses have laboratory/project components usingGoodwin’s state-of-the-art laboratories. As has already been mentioned, the AET programcomprises of Electrical, Mechanical, and Industrial concentrations. First three years are commonfor all concentrations, which allow all AET students gain a fundamental knowledge inengineering technology disciplines, work in teams
Arch Studio 4 AET 155 Architectural History 4 ET 111 Intro to Engrg Tech 1 MTH 122 Math for Tech II 3 MTH 112 Math for Tech I 3 PHY 121 Algebra-based Physics II 4 PHY 120 Algebra-based Physics I 4 Sem 3 Course Credits Sem 4 Course Credits AET 232 Working Drawings I 4 AET 241 Principles of M E P 4 AET 233 Arch Design I 4 AET 242 Working Drawings II 4 AET 236 Mechanics of Materials 4 AET 243 Structural Analysis 4 EN 111 English I 3 MTH 241 Math for
.” Today’scollege-bound student’s needs and interests are substantially different than thirty years ago. Tothis end, our faculty has worked over the past few years to find a unique selling proposition. Byworking with current and incoming students in the program, it was determined that the conceptof a career in electronic product and system development (actually participating in the design anddevelopment of the devices they use every day) resonated better with new students. While this isnot a new concept especially in mechanical and manufacturing programs2,3, a literature searchindicates that this idea is unique among electronics programs. In addition, based on efforts atother institutions, a focus in product development lends itself well to teaching
research interests. Clara’s research interests focus on the intersection of culture, learner agency, materials, and problem solving in informal and formal K-12 STEM learning spaces.G. R. Marvez, Tufts University Marvez is a PhD student in the joint STEM Education and Cognitive Sciences program at Tufts University interested in games, language, and controversial discussions. In past research projects, they have worked on the development of virtual simulations for teachers to practice leading controversial discussions. They are interested in ways to prepare teachers to facilitate controversial debates with students in STEM classrooms, such as through simulations and games, on topics such as genetic modification, climate
thinking, design thinking, and human-centered design. He is currently on a leave of absence from the department of systems engineering at Pontificia Universidad Javeriana in Colombia. He worked as a software engineer in different companies for seven years before transitioning to academia.Mr. Anirudh Roshan Sriram, Purdue University - West Lafayette Anirudh Roshan Sriram is a Technical Writer for Verification and Validation Products at the MathWorks. He received his Bachelor of Technology in Mechanical Engineering from VIT University, India in 2013 and his Master of Science in Mechanical Engineering from Purdue University, West Lafayette, Indiana in 2015. His research interests include CAD, FEA, engineering education
, M., W. Christian, et al. (2007). "Open Source Physics Curricular Material forQuantum Mechanics: Dynamics and Measurement of Quantum Two-state Superpositions ".8. Fuller, R., D. Winch, et al. (2006). Responses to the CiSE survey of roles for computationin undergraduate physics courses, 2005-2006, IEEE-Computer Society. Database available foreducational research – contact CiSE publication office: for conditions andto request.9. Chonacky, N. and D. Winch (2005). "3Ms for Instruction: Reviews of Maple,Mathematica, and Matlab: Part I." Computing in Science and Engineering 7(3): 7-13.10. Chonacky, N. and D. Winch (2005). "3Ms for Instruction: Reviews of Maple,Mathematica, and Matlab: Part II." Computing in Science and Engineering 7(4
Paper ID #38600University Coursework as an Alternative to a Professional CertificationExamMs. Courtney Wright, INCOSE Ms. Courtney Wright is the Program Manager for the International Council on Systems Engineering’s (INCOSE’s) Certification Program. She has over twenty years of experience in systems engineering, particularly in US Department of Defense and government agencies.Morenikeji Araloyin, Binghamton University Morenikeji Araloyin is a systems engineer and PhD student in Systems Science at Binghamton University, New York. He has a bachelor’s degree in Mechanical Engineering and a master’s degree in Systems Engi
, evaluation and redesign of a power system. The first third of the course provides students with a formal introduction to the definitions and types of power (active and reactive), three phase circuits and transformers. The final two thirds introduces generators and motors and controllers. The general order of the topics is DC generators, voltage regulators for the generators, DC motor, speed controllers, AC gener a tor, AC voltage regulator, AC motor and AC motor controllers. There is a weekly lab which is closely tied to the lecture material. Specifically the labs include three phase circuit design, transformer characterization, generator voltage controller design, and motor speed controller. In order to
their needs” 1. Such solutionsrequire the use of appropriate technology and resources, and consideration of the localenvironment. For the developed western world, sustainable solutions can be seen in suchbuildings as the San Francisco Federal Building. This solution was embodied in a buildingdesign that matched advanced technology of a developed nation to the specific climateconditions of the project location. The engineers were able to design a mechanical system thatsaved $500,000 in annual operational cost 2; a lighting design that allows for approx. 85% of theoffice space to use natural light; and a structural system that incorporated recycled materials(blast furnace slag) 3.When considering an underdeveloped country and a building in the
Paper ID #6888Learned Lessons from the First Year Research Experiences for Teachers Pro-gramDr. Tolga Kaya, Central Michigan University Dr. Tolga Kaya currently holds a joint assistant professor position in the School of Engineering and Technology and the Science of Advanced Materials program at Central Michigan University. Prior to joining CMU, Dr. Kaya was a post-doctorate associate at Yale University from 2007 to 2010, a research and teaching assistant at Istanbul Technical University from 1999 to 2007. In 2007, he was a consultant at Brightwell Corp. Dr. Kaya was also a senior VLSI analog design engineer and project
[5].Most teaching methods in a traditional Electrical Engineering curriculum have not changed sincethe 1970s - with a preference for theoretical knowledge rather than practical application [6]. Thegatekeeper of knowledge paradigm is upheld, in which the faculty has the knowledge and thestudents are the empty receptacles into which they can pour their information and expertise [5].Courses revolve around lectures and lengthy problem sets. The faculty tells the information tothe students during lecture, often emphasizing the “correct” equations - flying through a copiousnumber of PowerPoint slides with no time for the students to absorb the material, much lessformulate and ask questions. Extensive problem sets are assigned as homework
integrate material from different courses, and develop problem solving skills. Whilethere is little disagreement as to the potential benefits of this approach, there is the need formodels of how to efficiently perform the research-teaching integration. This paper explores theuse of Macromedia Authorware 5 Attain ® to develop an interactive multimedia module that willtest the research integration concept and its feasibility.The module explores the NASA microgravity bioreactor, which was developed in the late 1980’sand is significantly impacting the tissue culture research community. The module is structuredto interactively lead students through a problem solving strategy that involves problemdefinition, solution generation, decision analysis
Engineering Technologyprogram at RIT recently developed a suite of web-based courses as part of the new Certificate inStructural Design. The online courses available include Structural Analysis, Timber Design,Reinforced Concrete Design, Structural Steel Design, and Applied Mechanics. The web-basedcourse management software used to create the e-learning environment is the Prometheus(or myCourses at RIT) platform developed at the University of Washington. This platformincludes an integrated e-mail list, discussion boards, live chat rooms and an online grade book.The purpose of this paper is to present a simple and effective approach used by the author inteaching a structural analysis distance-learning course. Structural analysis is a very
style guidelines. The project can be supervised by graduatestudents, who undertake the responsibility of assigning work to students and integrating the workinto the site. Benefits of the project include (i) giving the students an in-depth look at severaldifferent ethical issues, (ii) constructing a resource that has been used by instructors around theworld, and (iii) providing a low-overhead mechanism for adding another course to thecurriculum. This methodology should be applicable to courses involving professional issues inall areas of engineering.1. IntroductionEthics in Computing is a fast-changing field. The “hot issues” of one year frequently were noteven on the radar screen the year before. The past seven years have seen the rise and fall
Session 2263 A Multimedia Application for Teaching Design for Manufacturing Brian Riggs*, Corrado Poli*, and Beverly Woolf** *Department of Mechanical and Industrial Engineering **Department of Computer Science University of Massachusetts Amherst Amherst, MA 01003 {poli}@ecs.umass.edu, bev@cs.umass.edu AbstractThis paper describes the development process and requirements of a multimedia engineeringtutor as well as the specific development of a multimedia
, American Society for Engineering Educationincluded in the Seven Principles for Good Practice in Undergraduate Education [1]. Researchhas also shown that the retention of material by students is much higher when the student isdirectly involved in the learning process. This involves engaging the students in the learningprocess rather than just transferring facts. In other words, students learn by doing, not by merelylistening. More specifically, Astin [2] studied 159 colleges and universities. In the process heinvestigated and monitored eighty-eight environmental factors to determine their relationship tothe student’s academic achievement and personal satisfaction with post-secondary education.The two environmental factors found to be most
Tech. She has a Ms. degree in Mechanical Engineering at Virginia Tech, and Bs. in Mechatronics Engineering from Kocaeli University, Turkey.Mr. Umair Shakir, Virginia Polytechnic Institute and State University Umair Shakir is a Ph.D. student in Engineering Education. Prior to pursuing doctoral studies, he worked in the construction industry for five years in Pakistan and Dubai, UAE. He then joined the School of Civil Engineering, The University of Lahore, Pakistan as an Assistant Professor. He is working on a cross- national comparative study of engineering ethics and education systems in North America, Europe, and China. His passion also includes revitalization of the education system of developing countries for the
Paper ID #43360Supporting Engineering Students’ Identity Work Regarding their Career Trajectoriesfor a More Humanizing Engineering FutureMs. Yume Menghe Xu, Tufts Center for Engineering Education and Outreach Menghe (Yume) is a PhD student in STEM Education at Tufts University. She holds a bachelor’s and a master’s degree in Chemical System Engineering from the University of Tokyo, Japan. Prior to pursuing a PhD at Tufts, she designed and developed educational apps for children, and worked with students, teachers, and makerspace in Japan to host making workshops using various materials and tools. Her research interest lies in
uniqueness of the Advocates and Allies program has attracted the attention of other institutions including invitations to provide training for their faculty men and share information about the program and requests to use the materials developed in and for this program. The NSF ADVANCE //Institution/Program// presented their progress and successes as the ASEE 2013 conference [3]. The presentation spurred a number of conversations with the audience, which carried over once the session ended. An idea developed from these discussions to regularly deliver advocacy tips via the Women in Engineering Division newsletter. This dissemination mechanism was
have initially selected for implementation of EBIPs are calculus-basedintroductory courses. Normalizing effort across these courses ensures that there are opportunitiesfor students to have multiple synergistic experiences (especially in years 1 and 2) early indemanding STEM majors.We use communities of practice (CoP) of educators as the primary mechanism forimplementation and scaling of EBIPs. CoPs permit faculty and instructors to explicitly addressand negotiate an essential tension: developing one’s skill in instruction requires an educator todeepen her/his understanding and metacognition concerning what she/he is teaching (disciplinarycontent) and how she/he is teaching it (instructional strategies) in light of evidence concerninghow people
initially proposed by Denver local companies,CareerWise Colorado, Mikron, Intertech Plastics, and Andrew. With the certificate, a studentshould be able to start his or her career in mechanical or industrial engineering technicianpositions with a chance to move into quality assurance expert jobs or become lean manufacturingspecialists. Also, since all of required courses can be applied to the manufacturing concentrationof mechanical engineering technology (MET), a student can come back to MSU Denver topursue a BS degree in MET or in the Advanced Manufacturing Science (AMS) in the future.From our experience, a four-year degree driven by the industry will be a multidisciplinary degreefrom traditional academic point of view. There is usually minimal
2023 ASEE Midwest Section Conference Mechatronics Education: Exploring Inertial Measurement Units Through Hands-on Learning Mohammadianaftah, Nafiseh and Wilson, Sara E. Mechanical Engineering, University of KansasAbstractInertial Measurement Units (IMUs) are commonly used in many devices, from exercise trackingwatches and cell phones to aircraft and space vehicles. These sensors include triaxialaccelerometers, gyroscopes, and magnetometers. In a mechatronics course taken by upper levelundergraduates and graduate students, a set of laboratory exercises was created to provide hands-on experience and practical exposure to the operation
high-level language such as FORTRAN is taught,there may be little opportunity to teach programming within another environment.The use of templates to “trim the fat” from the student programming task is not restricted to high-level languages. FORTRAN instruction is currently required of all University of Kentuckychemical engineering students; therefore it is logical for us to utilize the skills students havealready developed in the first implementation of template-based assignments.The course in which this approach is first being used is entitled Process Modeling. The Universityof Kentucky course catalog describes this course as “Applications of principles of material andenergy balances, thermodynamics, heat and mass transfer, physical
Paper ID #13324Using LEGO MINDSTORMS in a Control Systems Lab to impact next gen-eration engineers (Works in Progress)Dr. Charlotte de Vries, Penn State Erie, the Behrend College Dr. Charlotte de Vries is a Lecturer of Mechanical Engineering at Penn State Erie, the Behrend Col- lege. She received her B.S. in Mechanical Engineering from the University of Massachusetts in 2009. She received her M.S. (2013) and Ph.D. (2014) in Mechanical Engineering from the Pennsylvania State University. She teaches Dynamics, System Dynamics, and Instrumentation, Measurement, and Statistics.Dr. Yi WU, Pennsylvania State University, Erie
topics. A multi-disciplinary workshop is being organized inaccordance with intracourse design principles.4.5 Thermo-Fluids. Lacking the space for both a thermodynamics and a fluid mechanics coursein several engineering programs, we combined two related courses to create an intracourse calledThermo-Fluids, exploiting the common curricular thread of flow and the associated commonmathematical techniques to connect the two subjects.4.6 Statics and Strength. Similarly lacking space for traditional static force analysis andstrength of materials courses, we combined the two to form a statics and strengths intracourse,based on the curricular interface of forces in a structural element: where statics ends withcomputation of forces, strength takes up the
Society of Engineering Education conferences. Dr. Padmanabhan is a member of ASEE. He is a Fellow of the American Society of Civil Engineers.Robert Pieri, North Dakota State University Dr. Robert Pieri is a Professor of Mechanical Engineering in North Dakota State University. He served as the Chair of the department from 1996 through 2002. Prior to coming to NDSU, ten years of his teaching career were spent as an instructor/professor at the United States Air Force Academy (USAFA). Dr. Pieri has a ten-year involvement with the American Society for Engineering Education and has served as a co-chair for ASEE’s new Engineering Educator Division. Dr. Pieri has worked with the tribal college
. 14).To scope our ethnographic data collection, we focused on examples of joint activity, defined asoccurring when students interact with both human and non-human actors and advancedpractitioners and/or their peers, as well as socio-material artifacts that are designed to mediateknowledge producing processes (Hutchins, 1995; Vygotsky, 1978). Through these interactions,students learn to employ shared terminology for conceptualizing design ideas, as well as themeanings associated with terminology (Lave and Wenger, 1991). They also learn to use designtools and socio-material artifacts to conduct design investigations and prototyping experiments.Additionally, these activities can become opportunities for both faculty and external stakeholdersto
t prototypee developedd 37 years latter. Students learned thaat thedevice haad been prop posed by arg guing that inhherent circuiit element syymmetry poiinted to atheoretical device rellating electriical flux and d charge [1,2]. Discussionn was focuseed on how too usethe theorretical guidellines to desig gn a develop pment plan ffor their memmristor.The secoond lecture foocused on thhe memristorr’s principle of operationn and the chaaracteristics of I-V curvess. The switch hing mechan nism of the memristor m waas explainedd by the I-V ccurves. Usinngthe coursse material as reference, students leaarned how