, andoffers an opportunity to improve spatial skills (Yildirim et al., 2020). VR allows users toexperience concepts or topics that are not easy to access in real-time and in addition, enableslearners to experience some aspects of the external world from a novel VR perspective (Wladiset al., 2015). Proceedings of the 2021 ASEE Gulf-Southwest Annual Conference Baylor University, Waco, TX Copyright © 2021, American Society for Engineering Education 3In higher education, immersive virtual reality has been utilized mainly in laboratory settings. Theproposed design of the Experimental Fabrication Division Branch immersive virtual reality
summer camps geared towards middle school, high school, and community college students to expose and increase their inter- est in pursuing Science Technology Engineering and Mathematics (STEM) fields. Dr. Astatke travels to Ethiopia every summer to provide training and guest lectures related to the use of the mobile laboratory technology and pedagogy to enhance the ECE curriculum at five different universities.Prof. Kenneth A Connor, Rensselaer Polytechnic Institute Kenneth Connor is a professor in the Department of Electrical, Computer, and Systems Engineering (ECSE) where he teaches courses on electromagnetics, electronics and instrumentation, plasma physics, electric power, and general engineering. His research
solution is a new cloud service known as HPC-as-a-Service.In this paper, we present an HPCaaS platform called ASETS which uses Software DefinedNetworking (SDN) technologies to smooth the execution of parallel tasks in the cloud. Further,we provide application examples that could be used in a typical introductory parallel programingcourse. We argue that HPCaaS platform like ASETS can significantly benefit the users of HPCin the cloud as if their program is running on a dedicated hardware in their own laboratory. Thisis especially advantageous for students and educators who need not to deal with the underlyingcomplexities of the cloud.1. IntroductionCloud Computing according to NIST1 is a shared pool of configurable resources offeringservices with
university, with attendance of over 300+ members, in a 1200square foot space, and is staffed with skilled technicians. Students work one-on-one or in a smallgroup with a technician which allows them to collaborate and develop their teamwork andtechnical skills. Classes can consist of training on various pieces of laboratory equipment,soldering skills, microcontroller implementations, practical electronic components, PCB design,and much more. Once a student has gone through training on the equipment, they are able to useit for their projects, coursework, or research. The classes build on each other to provide acontinuous learning environment that can rapidly build student confidence in being able to tackleengineering problems. By integrating the
TxDataReg Tx 0x08 16 Word StatusReg Tx FIFO 0x0C ControlRegFigure 8: Xilinx OPB UART Lite CoreIn addition to the cores just discussed, Interrupt Controller, External Memory Controller andSerial Peripheral Interface cores are also presented in class. Students complete a final designproject in lab in which they are required to use a new core, use a prior core in a new mode, ordevelop their own core. The use of soft cores in the laboratory and the closeness to the hardwareimplementation required by memory mapping cores
Figure 8. This provides the students withapproximately 14 weeks of topic lectures, leaving around 2 weeks for discussion of laboratoryassignments and their solutions, holidays, and occasional quizzes. Note that the final exam isscheduled the week after the 16-week semester concludes, and is utilized for each group topresent their semester project design. The class requires a substantial amount of laboratory work;however, after successful completion of the course, students are well versed in VLSI designusing the Mentor Graphics CAD tools.1) Introduction to VLSI SystemsLab#1: VHDL coding, synthesis, and simulation2) CMOS Transistor Theory3) Fabrication, Layout, and Design RulesLab#2: gate-level and transistor-level schematics and simulation4
AC 2007-2381: FACTORS FOR AN EFFECTIVE LSAMP REULeo McAfee, University of Michigan Leo C. McAfee received the BS degree from Prairie View A&M University, Prairie View, TX, in 1966, and the MSE and PhD degrees from the University of Michigan, Ann Arbor, MI, in 1967 and 1970, respectively, all degrees in Electrical Engineering. He joined the University of Michigan in 1971 and is currently an Associate Professor of Electrical Engineering and Computer Science. He has had summer and leave positions at General Motors Research Laboratories, IBM T.J. Watson Research Center, AT&T Bell Laboratories, and Telecom Analysis Systems. He has held leadership positions for curriculum and degree
givers set them apart from men.Women with children feel a constant stressor in their doctoral program due to the timedemands by both their academic work and their family. Single, women parents caring foryoung children have an especially difficult time with time allocation and enough time todo well in both the academic and family arenas. An international mother spoke of thedifficulty of leaving her young child with her husband in their native country in order forher to pursue a doctoral degree in the states. The question, “Is it worth it?” popped upfrequently.A second area mentioned by both domestic and international women doctoral studentsincluded physical problems inherent in a laboratory situation. The lab may require heavymanual work such as
studentlearning in their graduate teaching. Most of the faculty currently rely on paper-and-pencil homeworks rather than homeworks submitted electronically. Likewise,the faculty regularly use paper-and-pencil exams during class time but only oneperson uses electronically-submitted exams administered during class time.Generally, our faculty do not currently use take-home exams, either paper-and-pencil or with electronic submission. The faculty are split on the extent to whichthey use laboratory activities and associated reports to assess student learning ingraduate courses. On the other hand, projects, which are completed outside ofclasstime and may involve group work, are often used in our graduate curriculum.Similarly, graduate student learning is
comparisons. Students rate their progress on each course compared to other courses based ongaining factual knowledge, application of course materials to problem solving, and the ability toanalyze and evaluate ideas, creativity, and team skills. Further information can be found at:http://iweb.tntech.edu/ideaevaluations/IDEA%20Overview2.pptThe CoursesEngineering Technology – CAD for Technology CourseCAD for Technology course covers the 2D and 3D CAD techniques for industrial applicationswith laboratory experiences. AutoCAD 2006 software is used for the laboratory practices. Thisjunior level course has various teaching, assessment and practice components, and has thefollowing course management modules in the WebCTTM system. • Course syllabus and
efficiency by presenting eachstep with encountered issues and solutions. It can be part of the laboratory experiments toinvestigate variety of viable energy sources by performing experiments. The response of thestudents can be collected if they have positive or negative intentions. Students worked in thesystem stated that the use of "real" data makes the programming concepts taught in lecture muchmore meaningful to them. For many of these students, this experience involves the mostintensive teamwork they have had to deal with in their educational experience. Page 13.360.7 H2
levels of contact, including such things as classroom discussions; questions(both from the instructor as well as from the students); and active learning in small groups,including in-class exercises such as problem-solving, laboratories, small group discussions, etc.Interacting with students at these different levels (one-on-one, small group, classroom) offers theinstructor the opportunity to not only develop a positive rapport with his or her students, but alsothe ability to present the lesson material in a variety of environments, allowing the studentmultiple opportunities to absorb the information.One of the easiest ways to develop higher degrees of contact with students is to ask themquestions during the lesson. Questions can be used to
to solve such problems, and the processes used to solve theproblems. Thus, the goals of this project are to provide: • an intensive research experience for U.S. students working with partners at IIT Page 13.1301.3 Madras, a premier engineering institute in India , • experience in working as members of an international team for both the U.S. and IIT students, 2 • industrial research experience for the U.S. students working in industry research laboratories (Larsen and Toubro, Limited and
beginning, and they show no sign of subsiding. PDI is alsotime-intensive for faculty, requiring more time in class, more time coordinating among multipleinstructors, and more time interacting with (motivated but demanding) students outside of class.Finally, PDI-type instruction and research faces subtle but pervasive prejudice by scholars withinboth engineering and STS. Written off by many as “applied” scholarship, design andinterdisciplinary design especially, is seen as “soft,” “non-rigorous,” or otherwise lowly asopposed to “hard,” “pure,” high-status laboratory-based research. While the question of therelative status of different ways of knowing, and engaging, the world is clearly beyond the scopeof the present analysis, it is relevant to
intended to facilitate connections between math and science and engineering. Theseconnections address three of the project's thrusts which are embedded in the courses and includethe following. One thrust is the deepening conceptual understanding of mathematical functionand its utilization in problem solving processes in math, science and engineering. Another is theapplication of inquiry learning techniques in both classroom practice and laboratory practice.The third thrust is the integration of math and science both through the contextualization of mathcontent and processes and also through enhancing mathematization of science phenomena anduse in predictive design tools in engineering design processes. These thrusts of function, inquiry,and
Target toolbox allows accessto input/output data directly from a compatible data acquisition card and generates, compiles,and creates real-time executable code for Simulink models without the user having to writelow-level code [4]. These toolboxes enhance the capabilities of MATLAB in the HIL arena.The familiar interface of the MathWorks software suite will allow students who are oftenintimidated by laboratory equipment, such as oscilloscopes, function generators, and logicanalyzers, to experiment and gain more insight into concepts taught in the classroom.MATLAB provides a plethora of tools for that one could utilize to perform dynamic analysis,study and evaluate the simulated response of a system, implement, evaluate, and improve
of Toledo. The author explains that, because of trends promoted bystate departments of transportation, his program opted to integrate GEOPAK © into designclasses. Specifically, GEOPAK © was integrated into a synchronized CAD laboratory whichincluded highway geometric design, and site and utility layout. A semester long project was usedas the vehicle with which the software was introduced to the students. The conversion fromquarters to semesters was the original impetus for the expansion of the CAD laboratory courseoffering. The prerequisite is a freshman level course which incorporates Microstation ©instruction. The author refers to the challenge of adequately exposing students to all of thecapabilities of GEOPAK © within the available 33
planning software tool. BIM tools(primarily REVIT Building/Architecture and Bentley Architecture) started appearing in the classprojects in the spring of 2006 and took hold firmly in the spring 2007 course. Students in theAEC Global Project Class generally had minimal exposure to these software tools (with theexception of AutoCAD and one of the structural analysis tools) before beginning the class. Inaddition to class trends, two of the authors attended a Building Technologies Workshop at OakRidge National Laboratory in February 2006 and a BIM in Structural Engineering Workshoporganized ay SEI/ACEC in July 2006.By the fall of 2006, the conditions and interest level among key faculty were sufficient to offer acourse at the University and the CEE
program. He received his masters of science in physics from Caltech for his work in the field of nano-scale mechanical resonators. Before arriving at Caltech, he earned his bachelors of science in physics from the University of Florida.Juan Pedro Ochoa-Ricoux, California Institute of Technology J. P. Ochoa-Ricoux was born in Mexico city in 1980. He obtained his B.S. in Physics Engineering with Honors from the ITESM (Monterrey Tech) in 2003. Since then he has been a graduate student at the California Institute of Technology, where he studies the phenomenon of neutrino oscillations in the MINOS Experiment at the Fermi National Accelerator Laboratory. He also served as a physics instructor for the
– resulting in 131 mentor/team pairings since 2002.Research groups providing topics and mentors for the upcoming Spring 2008 are representativeof the units that typically work with Design Challenge teams: • Space Shuttle Systems Engineering and Integration Office • Constellation Program Office • University of Texas Center for Space Research with the JSC Exploration Office • Habitability and Human Factors Branch, Space Food Systems Laboratory • Biomedical Systems Branch, Systems Architecture and Integration Office • Propulsion Branch, Energy Systems Division • NASA Headquarters, Advanced Capabilities Division • EVA Technology Development Group, Crew and Thermal Systems Division • NASA Exploration Systems Mission
AC 2008-2264: WHY A LIBERAL AND MULTIDISCIPLINARY EDUCATION ISNEEDED TO SOLVE THE ENERGY CRISISMatthew Heun, Calvin College Matthew K. Heun received his Ph.D. in Mechanical and Industrial Engineering from the University of Illinois at Urbana-Champaign. He was a staff engineer at the Jet Propulsion Laboratory in Pasadena, California and a Senior Engineer at Global Aerospace Corporation in Altadena, California before joining the Engineering Department at Calvin College in Grand Rapids, Michigan.Steven VanderLeest, Calvin College Steven H. VanderLeest is a Professor of Engineering and currently the Engineering Department Chair at Calvin College. He has an M.S.E.E. from Michigan Technological
than once in a cohort’s four year program. The difference between thedifferent modules that carry the same name lies in the specific activities that comprise them.1. “Community Modules”: Our university unique location allows interaction with a cultural-, racial-and age-diverse community for enriching the learning and teaching environment. This module makes useof this diversity and consists of several elements. One of these elements is reaching out to the K-12community where some of the students in the program will help in teaching technology at local schools.Students from each cohort will be engaged in hands-on laboratory experiments. For example, they mightdesign, build and test miniature bridges using dedicated computer programs; use fiber
unexpectedlyhigh note when the complex staff took all the students and chaperones on a ride around the trackin the race cars.The Forensics Camp introduced students to this exciting field. Chemistry, biology, andmathematics professors taught students in the school’s state-of-the-art laboratories. The studentswere exposed to many areas that real crime scene investigators use in their line of work: TraceAnalysis (hair & fingerprints/tools & markings) Blood Spatter & Typing, Digital, DNA andMathematical Forensics, and Forgery Detection. At the end of the week, the students put theirnewfound knowledge to use by playing the role of a crime scene investigator to examineevidence and analyze data to solve a murder.The Legos NXT/Robotics camp featured a
this new curriculum in 1997.10 The program was successful inincreasing retention and graduation rates in our engineering disciplines. Recently, we updated theIEC in order to address several factors described by the National Academy of Engineering’sreport: The Engineer of 2020.11 The newly implemented curriculum relies on a concept entitledLiving With the Lab (LWTL).The Living with the Lab ConceptIn the traditional laboratory and shop settings, faculty members or technical staff mustensure that the required equipment is ready and that supplies are on hand so that project activitiescan be performed and/or data can be collected. While it’s possible for energetic faculty membersto guide students through creative design projects and laboratory
innovations in instruction work because they allow the presentationof material in new ways that students find more accessible to their native learning styles[9-12].Examples of this include the successful integration of laboratory exercises or simulations incourse like chemistry, physics, and engineering[13] to allow students who are more "hands-on"or are sensing students to practice the concepts in the ways they learn best. One quantitativestudy showed that students raised exam scores by an average of 16 percent on a straight scalewhen they were exposed to a simulator of signal processing equipment in electricalengineering[13]. Other examples include using instructional videos or demonstrations onstreaming media that allow visual learners to benefit
Transactions on Semiconductor Manufacturing from 1997-2001 and was a National Science Foundation "National Young Investigator" (1993-98). He was a National Science Foundation and an AT&T Bell Laboratories graduate fellow, and has worked as a member of the technical staff at AT&T Bell Laboratories in Murray Hill, NJ. He is a Fellow of the American Association for the Advancement of Science and a member of the National Advisory Board of the National Society of Black Engineers (NSBE). Page 14.464.2© American Society for Engineering Education, 2009 Development and Implementation
, Architecture, and Sciences, anda unique college that includes Economics, Public Policy, International Affairs, ModernLanguages and History of Science and Technology.IntroductionThe objective of this paper is to describe the development and initial experiences with a course-laboratory package suitable for students from all schools on a university campus on an issue ofglobal importance. The intellectual challenge is in tackling the core learning issues for such acourse across disciplines, and tailoring the contents to diverse interests and talents, integratinghands-on building and testing with high-level concept development. The course has to attractstudents all over campus, while ensuring excellent value to all.Some believe that the Hubbert Peak Oil1
outcome.The final evaluation of the effectiveness of changes on the capstone design course is rubric basedevaluation of reflective statements written by students at the end of the course. The rubric scoresstudents on the relevance of what they write to engineering practice, writing ability, analysis ofthe experience, interconnection with other classes, validity or lack of self-criticism, andawareness of ethics. Qualitative analysis of these statements indicated that: 1) the class isvalued by students compared to other, more theory-based classes in the program; 2) students sawother project-based and laboratory classes as providing better preparation for an engineeringcareer than theory-based classes; 3) students valued the certification training and
totallyunprepared to cope with the realities of teaching in a developing country. At the time it seemedthat ITU had somewhat of a kismet philosophy for academic planning. The start of the academicyear was delayed by more than two months for reasons that were never made clear. Once thesemester began, the author could not get any clear indication of when it would end and finalexaminations would be scheduled! One of the assignments given to the author was to design theunit operations laboratory for the newly constructed chemical engineering building. Little did heknow that this included specifying the electrical power requirements for the entire building!Indeed, the building had been built without any electrical power of any kind! Undaunted butconsiderably
particular attention paid tosustainable design and systems analysis. Our philosophy of sustainable design incorporatestechnical, financial, environmental, and societal criteria1. The backbone of our curriculumconsists of a 10 credit sequence of design courses that extend through the entire sophomore, Page 14.130.2junior, and senior years. These courses are laboratory courses and contain significant projectwork as well as design instruction. Our approach to teaching design includes instruction incritical thinking practices such as the development of “intentional and directed intellectualprocesses and habits that foster effective thinking”2. This