2006-1542: A RE-CONFIGURABLE SOFPGA ARCHITECTURE: THE FPGADESIGN LEARNING TOOLNasser Alaraje, Michigan Technological UniversityJoanne DeGroat, Ohio State UniversityScott Amos, Michigan Technological University Page 11.108.1© American Society for Engineering Education, 2006 A Re-configurable SoFPGA Architecture: The FPGA Design Learning ToolAbstractIn today’s world of advanced technology, numerous applications are computational intensive.This created an opportunity for the development of new System-on-FPGA (SoFPGA) designtechniques to allow easy IP cores re-use and integration under time-to-market pressure. To createthe infrastructure
short, problem-based courses with low enrollment (2-5 students) do not map conveniently to the traditional teaching schedule of faculty, they canprovide a unique opportunity for service both to students and to the university, especially insummer semesters. In addition, the National Academy of Engineering has recognizedexperiential learning which involves solving open- ended problems that are complex and illstructured as a critical competency for engineers in the 21st century.This paper describes the design of a special problem course in which we use the case method toteach industrial engineering technology students nonlinear integer programming, while providinga collaborative learning experience in solving a simulated real world problem. The
scripting. However, with the fast development of InformationTechnology, there are several factors that we need to take into consideration whendesigning a new script programming course.First, the popularity of the Internet makes web-related scripting technologies becomemore important. It is necessary to include web scripting technologies like CGI (Perl),ASP.NET and PHP.Second, the increasing market share of Microsoft Windows Servers makes Windowsscripting technologies become more popular. It is helpful to include Windowsscripting technologies like Windows batch file and VBScript.Third, in the “real-world” environment, the system administrators are likely to be
Cyber-Physical Systems (CPS) has opened up new horizons forautomated, dependable, secure, and safe energy applications, which has createdunprecedented avenues for communication, monitoring and control at the utility level.Cyber-Physical Systems can be described as smart systems that encompass computationaland physical components, which are seamlessly integrated and closely interact, to senseand monitor the changing state of the real world. These systems involve a high degree ofcomplexity at numerous spatial and temporal scales and involve highly networkedcommunications with robustly coordinated software and hardware components1, 2.eXtansible Messaging and Presence Protocol (XMPP)XMPP offers a common transport protocol that can be sent to mobile
approximatelymodeled as a series inductor and resistor. To simplify the circuit, the resistance of the capacitorband and series inductor will be ignored. The impedance of the load can be calculated as, Z load = jωLSE + (R1 + jωL1) / ( jωC1) (2) 1 / jωC1 + jωL1 + R1From the above equation, the load impedance depends on the power supply frequency, at aresonant frequency the impedance is a real number. In the real world applications, the capacitor
real time, enabled by online learning software.Due to the rapid changes in the technological world, faculty involved in teaching must keepinformed of advances in technology currently used in the industry. On the other hand, industrywants to have qualified and well-educated employees who are ready to implement theirknowledge on day one of their employment. As a result, while academia needs to be fully awareof the current state-of-the-art knowledge requirements: industry must be driving the curriculumdevelopment. We intend to strengthen an existing link between the University and industry inorder to stay current. This partnership is a “two-way street” and advantageous for both parties.ConclusionAcademic programs in the School of Technology
. Page 11.86.1© American Society for Engineering Education, 2006 A New Rapid Microprocessor System Design Laboratory Development for Digital Design EducationAbstractThis paper presents a new rapid microprocessor system design laboratory to be used in the earlystages of digital design education. To reduce a gap between current digital fundamentals andcomputer design courses, a register-transfer level (RTL) microprocessor design, which providesboth functional and structural features and implementation options of the design, is taught in thenew laboratory. In addition, this rapid RTL microprocessor system design laboratory offers acloser pre-industrial, real-world design experience, because an RTL design is considered as
Page 12.857.4 modeling methods, fits, GD&T, tooling, etc. C. Improved teaching methods. The method of teaching is being altered to maximize the learning experience and retention by: 1) Carefully relating each concept and method presented to its role in real-world graphical communications, so that the connection to application and practice is clear. 2) Utilizing design/draw/build projects throughout the curriculum. Project based learning has been shown to improve the learning experience and retention through increased student participation, and understanding of the relationships of concepts to, and details of, the
project management, robotics /automation and air pollution dispersion modeling. Page 12.1577.1© American Society for Engineering Education, 2007 Utilizing Industrial Collaboration to Infuse Undergraduate Research into the Engineering Technology CurriculumAbstractThis paper discusses how the Department of Engineering & Design (E&D) at EasternWashington University (EWU) used real world problems provided by industrial partners toenhance the student’s classroom experience using undergraduate research. Last year theEngineering & Design Department moved
presentation.The goal of this paper is to describe and discuss the project-based learning in our freshmanengineering graphics course. The evaluation of student learning will also be discussed. Thispaper will describe how projects and teams are selected, the team dynamics, project leadershipand conflict resolution as they relate to each team. Several real-world projects such as design andprototyping of Boeing 737 aircraft, a functional flashlight will be described. This paper will alsodiscuss the assessment tools for evaluating the team-based projects.I IntroductionThe future of nation’s university and industry is dependent upon the orderly, competent,selective and timely acquisition of high technology in the form of computer graphics, computer-aided
maximal success from industry input on curriculum development, program improvement and laboratory enhancement • Illustrations of how to develop internships with industry partners • Deliberations on how industry can help to accelerate the global connection for engineering education • Real world cases of the positive improvements for industry, educational institutions and communities that result from collaboration between industry and engineering educationPresented in this paper are actual experiences and examples of how a technical institution andfaculty have mutually benefited, with industrial partners from ongoing relationships andprograms that have successfully worked to improve the quality and direction of
, 2007.18. Sven G Bil´en, Luis P Bernal, Brian E Gilchrist, and Alec D Gallimore. The student space-systems fabrication laboratory: Enhancing engineering education through student-run, real-world projects. In ASEE-NCS 1999 Spring Conference, Pennsylvania State University Erie-Behrend, Erie, PA, pages 68–72, 1999.19. Xu Bing and Sun Haiquan. Construction and practice of t-cdio course system [j]. Research in Higher Education of Engineering, 2:008, 2009.20. Karen Swan, Philip Vahey, Mark van’t Hooft, Annette Kratcoski, Ken Rafanan, Tina Stanford, Louise Yarnall, and Dale Cook. Problem-based learning across the curriculum: Exploring the efficacy of a cross-curricular application of preparation for future learning. Interdisciplinary
Education, 2019SENIOR DESIGN CASE STUDY: APPLICATION OF SYSTEM ENGINEERING CONCEPTS IN THE DESIGN OF A CNC ROUTER 1ABSTRACTSystem engineering (SE) is a multidisciplinary approach for the design, management, andrealization of a complex system. In product development, SE is utilized on structuring a productdevelopment process into simple and collaborative activities that proceed throughout the entireproduct life-cycle, while at the same time, supporting engineers’ decision making. Project basedengineering design classes are suitable for undergraduate students to study and practice theconcepts of SE while solving real-world design problems. In this paper, we document the productdevelopment process, especially the
- critical networks, vehicular networks, virtualized wireless networks, green communications, the Internet of Things, and unmanned aircraft systems. Dr. Marojevic has been instructor of undergraduate and graduate level classes at the Barcelona Tech and Virginia Tech. He is a member of the IEEE, ACM, and ASEE.Dr. Antoni Gelonch-Bosch, Universitat Polit`ecnica de Catalunya Antoni Gelonch-Bosch is associate professor at Dept. of Signal Theory and Communications at Barcelona- Tech University from 1997. His research interest has moved along years from the development of suit- able hardware platforms for implementing wireless systems, attending real-time processing constraints, to application of Software Radio concept and
studentto optimize the predicted performance of the catapult which can then be easily checkedwith a prototype.Thus the design and fabrication of a prototype trebuchet becomes essential. Here again isanother benefit of the exercise: the design must be done by the student and may or shouldbe timed to correspond to the student’s classroom instruction of AutoCad or Solid Works.Thus the student uses all of what is being taught in the classroom to solve a “real world”problem and more! By more is meant that the sophomore students in this Dynamics classhave not had formal instruction in experimental instrumentation, Measurements andAnalysis or dimensional analysis techniques such as Buckingham-Pi theorem anddimensionless groups. However, the testing that
value of good team work.The project emphasizes on the word team because team is not same as group. The term groupimplies a somewhat more than a collection of individuals but the team implies much more [2].The curriculum in any specific area of study tends to narrowly focus students on that area,whereas real-world multifaceted systems tend to incorporate components from multipledisciplines. The development of such systems has shifted from designing individual componentsin segregation to working in cross-functional teams that include the variety of proficienciesneeded to design an entire system [1].The counter design provides an opportunity for studentsinterested in electronics, design, application and troubleshooting to combine their interest
Engineering Education Annual Conference & Exposition Copyright 2002, American Society for Engineering Education 9. Paul I-Hai Lin, Lecture Notes and Laboratories of C++ Objected-Oriented Programming with Industrial Applications, www.etcs.ipfw.edu/~lin, Indiana University-Purdue University Fort Wayne, Fall 1999. 10. Deitel, Deitel & Nieto, Internet & World Wide Web - How to Program, 2nd Edition, Prentice Hall, 2001. 11. Deitel, Deitel & Stantry, Advanced Javas Platform - How to Program, Prentice Hall, 2001. 12. Deitel, Deitel & Nieto, Visual Basic.NET - How to Program, 2nd Edition, Prentice Hall, 2001. 13. Deitel, Deitel & Nieto, C#.NET - How to Program
American Educational Research Association, Seattle, WA.7. McLoughlin, C. (1999). Scaffolding: Applications to learning in technology supported environments. Paper presented at the World Conference on Educational and Multimedia and Hypermedia & World Conference on Educational Telecommunications, Seattle, WA.8. Oliver, K. (1996). Realizing the potential of scaffolded instruction in situated learning environments: Lessons from a formative assessment. (ERIC Document Reproduction Service No. ED413310): University of Georgia.9. Thompson, P. W. (2002). Didactic objects and didactic models in radical constructivism. In K. Gravemeijer, R. Lehrer, B. van Oers, & L. Verschaffel (Eds.), Symbolizing, Modeling, and Tool Use In Mathematics
Paper ID #21251Teaching Directory Services: Topics, Challenges, and ExperiencesDr. Yu Cai, Michigan Technological University Dr. Yu Cai is an associate professor and program chair in the Computer Network and System Adminis- tration (CNSA) program at the School of Technology, Michigan Technological University. His current research interests include cyber security and medical informatics. He is particularly interested in applying his research and techniques to real-life applications. He has been a consultant to many companies includ- ing IBM and Ford. Dr. Cai serves in editorial boards of several international journals. He
as being less daunting. Faculty also directly encouragedstudents taking the non-major course to consider pursuing CS. Five departments marketed oroffered a CS minor to student in other majors, and three departments created dual majors oronline post-baccalaureate programs for students majoring in other fields that have highconcentrations of women (i.e., biology and psychology). Explicitly drawing attention to the waysin which computing and other fields intersect enables students to understand the relevance ofcomputing to real-world, socially relevant applications, which also influence their commitmentto the major once enrolled [5].Finally, institutions made other systemic changes that likely contributed to attracting morewomen. Four schools
students are alsoexpected to have a “hands-on” experience with real world problems that are faced byengineering professionals. This paper is a summary of the experience of one facultymentor and his undergraduate colleague to combine both of these requirements into aneffective educational experience for the student and the instructor.The first requirement is that the problem that needs to be solved must not only be a real-world engineering problem but one that has some reasonable likely hood of being solvedin the time allowed. The only other requirement is that the student be a valued member ofthe team; taking on responsibilities that are essential to the project and ones that thefaculty mentor would need to do if assistance were not available…in
evaluation of a Real-Time Text Display with Speaker-Identification, whichdisplays the location of a speaker in a group (RTTD-ID). RTTD-ID aims to reduce frustration inidentifying and following an active speaker when there are multiple speakers, e.g., in a lab. It hasthree different display schemes to identify the location of the active speaker, which helps deafstudents in viewing both the speaker’s words and the speaker’s expression and actions.We evaluated three RTTD speaker identification methods: 1) traditional: captions stay in oneplace and viewers search for the speaker, 2) pointer: captions stay in one place, and a pointer tothe speaker is displayed, and 3) pop-up: captions “pop-up” next to the speaker. We gathered bothquantitative and
implicationsof defining “systems engineering.” Some of the questions we address here are as follows.What are the real-world problems that systems engineering claims to study, what are theprincipal methods of systems engineering and how different are they from those ofindustrial engineering, and what is and should be taught in programs in systemsengineering? What can students expect to learn and what jobs can they obtain aftercompleting their studies?IntroductionWith two recent actions, the industrial engineering community seems to haverelinquished any exclusive claim on the use of the phrase “systems engineering.” Thoseactions are (1) the vote by IIE membership to reject a proposal to add “systems” to itsname and (2) the determination that ABET’s new
,as well as at comparable institutions in Canada (specifically, British Columbia). While the academic and professionalbackgrounds of the two authors of this paper are considerably different, we also share quite a bit in common: inparticular, both of us have spent several years in high-tech industry prior to returning to the academic world asComputer Science faculty. In particular, when teaching various CS courses, we try to relate concepts and techniquescovered to the "real-world" applications, and in particular the recent and current technology challenges and R&D donein industry. We have applied this general philosophy to virtually all courses we have taught, including the verytheoretical ones -- such as those on Automata and Formal
extent that it accurately reflects,or predicts, the real world. We search, therefore, for a model that will stand up when applied tothe widest possible variety of tests. While some parts of this approach to the Second Law have been incorporated previouslyby the author, the pedagogy described below was presented in full for the first time to a class inthe second course of the thermodynamics sequence in 2008. The students were asked to considerthe universe as they experience it. They were presented with the hypothesis that the universe isinfused with a characteristic that is called “usefulness”, and that it is usefulness that is valued.This hypothesis was illustrated for them through a student exercise.Student Exercise: Identifying
students studying outside their countries toprepare them for the global business world 2,3. Very few articles address the training ofengineering educators to prepare them to train engineering students for globalization. Part of thisfaculty preparation is to study globalization of education from the literature 4,5,6,7,8. However,many of the studies show that successful international endeavor requires plenty of face-to-faceinteractions9. Ideally, the educators themselves must gain real teaching experience outsidehis/her own country. The first purpose of this paper is to promote awareness of the facultypreparation aspect of international education. The second purpose is to present lessons learned byan American faculty member from teaching a
committed to 70 internship slots for the students. Internship inindustry augments students learning by providing real life experience in an environment that thestudent will encounter after graduation Page 22.864.8Student success at the national level design competition The program has 23 students as of Fall 2010. Two years in a row, students from theprogram participated at the national design competition sponsored by PMMI. In 2009, at thePACK Expo in Las Vegas, PMMI introduced the first-ever competition, which required collegestudent teams to address a unique, real-world packaging challenge. Through a member of theDEC, the institution was
education (students typically alternate full time employment and full time educationon a semester by semester basis). This is extremely beneficial to the student as they can startapplying lessons learned in the classroom to “real world” applications, investigate possiblecareer paths, earn money to help offset college costs, gain business contacts, and makethemselves more attractive to potential employers upon graduation. Businesses like theseprograms for several reasons: • First, students may be hired during a period of peak workload, when additional staff is needed for a short duration and a new full time employee is not justifiable. • Current students with some technical background can be trained to the company’s practices
need innovative minds. This may only be achievablethrough progressive curriculums and effective partnerships between industries,universities, and government institutions. Those partners that make the best investment intechnically competent employees are going to be those that prosper in the 21st century.In conjunction with lecturing and testing, it is important to engage students and challengethem in a creative problem-solving manner that fosters their individual growth anddevelopment. As the theoretical knowledge is internalized, students become intrinsicallymotivated search engines to fuel their own intellectual growth. To effectively connectwith students at this level and prepare them for the future we need real-world skills
]. Page 22.333.7New Course 2: Topics in Programmable Logic Design ( 3 Cr hrs, Class 2 hrs, Lab 2 hrs)Course ObjectivesDue to industry’s increased demand for FPGA designers, the intention of this course is to givestudents real-world experience in FPGA logic design and give them the necessary training withdesign tools widely used in industry. Tools used will include Altera’s Quartus® II developmentsoftware and FPGA design implementation on Altera’s DE2 FPGA evaluation board. The long-term objective of this course is to provide a learning opportunity that will result in researchactivities focused on FPGA design. This research will provide more in-depth training for seniorstudents and engage undergraduate students in applied research