professor in Electrical and Computer Engineeringand in the Coordinated Science Laboratory at the University of Illinois at Urbana-Champaign. Her researchinterests include the design and analysis of algorithms and asynchronous learning environments. Page 1.307.7
more pressing in countries like the DR where most of its young population is from marginal communities. Young people are the country’s most valuable resource. It will be difficult for the DR to emerge as an innovative player in the global economy without developing this wealth.In addition to resources and cost, lack of prior experiences in the country with programs likeMACILE has made the program design more challenging. Another limitation has been the lackof studies dealing specifically with the conditions of education in Ytabo or the socio-economiccharacteristics of the communities. Research works dealing with education in the DR have beenvery general. A study phase was necessary, as a result. This phase helped develop
tools do not provide enough feedback to the user. Ifthere are fundamental errors related to sketching linkages or to providing specifications, those arenot shared with the user. The users can extract the final results, kinematics or forces, but there isno information about the equations used in the backend. The availability of equations, for instance,will greatly help their usage in course work. If more information is available, students can improvetheir understanding of the step-by-step process taught in lectures or illustrated in technical books.During homework and laboratory activities, a student must spend a lot of time trying to manuallyverify the correctness of their work. The teaching team also experiences delay during the gradingprocess
youth who often influence family purchases. If successfulin attracting a younger consumer to a product, a company will usually have a customer for life.Students were asked to complete a pre-survey, designed to gauge their understanding of theabove ethical issue. Students then read the provided resources and individually completed aninformal written assignment, of which the goal was to have students form their own opinionsabout the topic. When students returned to class, they shared their views with the class during adiscussion. Students were then asked to complete the pre-survey questions as a post-survey togauge their learning experience from this exercise. This activity increased student exposure tothe American Society of Agricultural and
problem solving and project design are central to theteaching approach of this class. For example, the module on dynamics of fluids, which focuseson fluid flow in pipes, has been historically the most challenging one for the students. Theinstructor’s experience and the feedback from students were jointly pointing towards the need ofmore problem solving in the class to assist with the students’ struggle with some concepts. Theflipped classroom teaching method emerged as a solution, especially for modules as the onementioned above, since instead of leaving the students to struggle on their own with homeworkproblems they could spend more time to practice problems directly assisted by the instructor.At this midsize university there are other aspects
” simulation runs with conditions that giveknown results. Secondly, if this is not possible, make several simulation runs using differenttime steps (or numbers of steps) to see if each gives the same results.At Old Dominion University, EET students using Multisim are cautioned concerning errors thatcan result by misusing the software. Examples similar to the ones illustrated in this paper areperformed in class so that the students can have first-hand exposure to possible errors that canoccur. In laboratory courses in which students are performing experiments using Multisim,introductory lab lectures warn the students of common analysis pitfalls that can cause erroneousresults, and ways to avoid them. Since the ODU laboratories are equipped with
engineers. Thenet result is a positive, efficient, and effective learning environment.Bibliography1. “MATLAB”, MATrix LABoratory, is a trademark of The Mathworks, Inc..2. “TK Solver”, Tool Kit Solver, is a trademark of Universal Technical Systems, Inc..3. “MS Excel”, Microsoft Excel, is a trademark of Microsoft Corporation.4. “Mathematica” is a trademark of Wolfram Research, Inc..5. “Mechanical Desktop” is a trademark of Autodesk, Inc..6. Joe King, Engineer’s ToolKit, MATLAB 5.0 for Engineers, Addison-Wesley Select Edition (1998)PATRICK DEVENSPat Devens is a professor at VPI & SU and teaches computer-aided-design, programming, and engineeringfundamentals. He received his B.S. at the United States Military Academy and M.S. in Civil Engineering
education as it can limit the engagement orinvolvement of an educator with the students [11]. The COVID-19 pandemic pushed educators to conduct emergency remote teaching, withhands-on laboratory and skills-based workshops disrupted. The inability among educators toshift to online learning and create meaningful learning in their courses, along with the lack ofavailable remote or online laboratories and simulated technology-based skills training, exposedthe stark gap between engineering education requirements in the 21st century and what HEIscurrently have. Therefore, well-designed and planned pathways to transformation must beadequately studied to bridge the gap in engineering education to transform educatorseffectively in a sustainable
, Air Pollution Control, MaterialScience and Engineering, and Introduction to Chemical Engineering have all addeddiscussion, examples, and problems concerning fuel cells. Additionally, hands-onexperience has been added to the Unit Operations Laboratory through purchase of a fuelcell/ solar cell combination. The unit demonstrates the renewable creation of hydrogenfuel, its subsequent use in a fuel cell, as well as the working characteristics of a fuel cell.The students in the Senior Design course have participated in the AIChE ChemE CarCompetition and a student group used fuel cells to power their car. Students are veryexcited about this technology, and that desire is used to generate a working interest in thecurriculum. This is also an
Paper ID #27069Engineering Students’ Self-Reflections, Teamwork Behaviors, and AcademicPerformanceMs. Saira Anwar, Purdue University, West Lafayette Saira Anwar is a third-year doctoral student at School of Engineering Education, Purdue University. She is interested in exploring the effects of using technology to enhance students’ learning. Further, she is interested in understanding the ways and interventions that can be designed to deal with conceptually hard concepts in STEM courses especially programming and software engineering courses. Prior to Purdue University, Saira worked as Assistant Professor in Computer
major [4]-[18]. For example, Alpár et al. performed a qualitativeanalysis of a cohort of computer science students’ responses to assess these students’ perceptionsof mathematics and to investigate if mathematics can be a bottleneck to learning in computerscience [5]. Students generally perceived mathematics background as significant and relevant(and transferrable) to software engineering, algorithm analysis, logical thinking and continuouslearning in computer science. Ayyagari discusses the significance of math in the control systems education in selectedinstitutions of higher education in India, and the importance of demonstrating theory throughpractice in laboratory experiments, since students have a general reluctance to algebra [6
AC 2007-2283: MIGRATION FROM A LEADERSHIP HONORS PROGRAM TOAN ENGINEERING LEADERSHIP MINORGregory Tonkay, Lehigh University Gregory L. Tonkay, Ph.D. is an associate professor and associate chairperson of the Industrial and Systems Engineering Department at Lehigh University. He is also the director of the ISELP and the Electronics Manufacturing Laboratory. Tonkay has been actively involved in curriculum development for the college’s common freshman year and the department’s degree programs and minors.E. Zimmers, Lehigh University Emory W.Zimmers Jr. Ph.D is professor of Industrial Systems Engineering and Director of Enterprise Systems Center at Lehigh University. Zimmers has been responsible
Paper ID #29299Educating the Workforce in Cyber & Smart Manufacturing for Industry 4.0Dr. Mathew Kuttolamadom, Texas A&M University Dr. Mathew Kuttolamadom is an associate professor in the Department of Engineering Technology & In- dustrial Distribution and the Department of Materials Science & Engineering at Texas A&M University. He received his Ph.D. in Materials Science & Engineering from Clemson University’s Int’l Center for Au- tomotive Research. His professional experience is in the automotive industry including at the Ford Motor Company. At TAMU, he teaches Mechanics, Manufacturing and
, more efficient processes, especiallythose small and medium sized businesses trying to maximize their resources in order to competeadequately.Businesses of the third world countries experience a still more difficult task because theintroduction of new technologies turns into an enormous sacrifice for shareholders, seniormanagement and involved departments. Keeping track of inventory within supply chainoperations is nearly impossible, but RFID technology is helping organizations identify and tracktheir assets throughout the supply chain activities. Managing wireless identification and trackingwith RFID in warehouses and distribution centers represent a new way to conduct businesses,which creates new benefits and challenges. Consumers are
, more efficient processes, especiallythose small and medium sized businesses trying to maximize their resources in order to competeadequately.Businesses of the third world countries experience a still more difficult task because theintroduction of new technologies turns into an enormous sacrifice for shareholders, seniormanagement and involved departments. Keeping track of inventory within supply chainoperations is nearly impossible, but RFID technology is helping organizations identify and tracktheir assets throughout the supply chain activities. Managing wireless identification and trackingwith RFID in warehouses and distribution centers represent a new way to conduct businesses,which creates new benefits and challenges. Consumers are
examination. Were in the 1980s more graduatesfrom the AHS, now classified as ISCED 3A, turned this into an overload of graduates from thevocational training since 1989. In comparison, in 1960 graduated more than 10,000 students, atthat time only 32 % graduated from a vocational and technical college9.At present, more than 300 VET colleges are distributed all over Austria, with a number of almost138,000 students10. Disciplines of engineering colleges are civil engineering, interior design andwood technology, electrical engineering, electronics, mechanical engineering, mechatronics,materials engineering, media technology and media management, information technology,chemistry, chemical engineering, food technology, IT and computer science
% of Grade Preparation Assignments 10% Application Assignments 20% Laboratory Assignments 21% Journals 3% Design Project 5% Extra Weekly Assignments 3% BONUS Quizzes 6% Midterm Exams 20% Final Exam 15%There were 13 total class sections of this course made up by 11 standard sections, 1 advancedprogramming section, and 1
languages. These discussions during the lecturekeep the students interest high and trigger their curiosity. In the laboratory, students first useVisual Studio to develop simple programs and learn program debugging methods.In the second phase of the course students not only continue to improve and acquire newprogramming skills, but they also learn how to use a microcontroller. Understanding basiccomputer organization makes the microcontroller operation easily understandable. Furthermore,students conduct research on how to interface different peripheral hardware, such as sensors andactuators. In the laboratory, students develop projects using microcontroller development kitdeveloped by SJValley Engineering (SJVE)2. The laboratory experiments for
).The final station was a tour of the satellite simulator system in the Cal Poly Space Technologiesand Applied Research Laboratory. The research project uses four different inertia wheels drivenby motors to control the attitude of a satellite structure supported on a spherical air bearing whichsimulates a gravity free environment. The students got a first hand view of how gyroscopiceffect is used in satellite systems.AssessmentTwo different final exam problems were used to assess changes between the Spring (nogyroscopic mini-lab) and Fall (gyroscope mini-lab) quarters. The results of both groups wereassessed to compare the effect of the hands on experience. It was anticipated that the experiencewould help give students a greater intuitive
homework, or extemporaneouslyanswers student questions in front of the entire section from the active minority who ask.Students seldom witness or encounter what to do if they are “stuck” and cannot see a clearsolution path. On the other hand, studios are designed to engage all students in the classroom.They are activity based where students spend the majority of the class time in action to answerconceptual questions, solve problems, explain phenomena from in class demonstrations, work onvirtual laboratories, etc. The GTAs or instructors interact with students in a facilitative modewhere they ask probing questions designed to enable the students to reflect on appropriateprocedures and concepts so that the students themselves can identify what to do
Bioengineering and Director of the Engineering Education Research Center at Washington State University. He has led numerous multidisciplinary research projects to enhance engi- neering education. He currently leads projects creating and testing assessments and curriculum materials for engineering design and professional skills, especially for use in capstone engineering design courses. He has been a Fellow of the American Society for Engineering Education since 2002.Paul B Golter, Washington State University Paul B. Golter obtained an MS from Washington State University and recently defended his PhD degree and is currently the Laboratory Supervisor in the Voiland School of School of Chemical Engineering and Bio-engineering
power system, and teach them the properties as well as the pros and the cons of a real wind power system. Lastly, it was shown how an Interactive Plant Environment system, consisting of a commercial-grade wind turbine and commercial-grade solar arrays, is utilized at K-State Salina. It necessitated a substantial investment, but besides supplying “green” energy to the campus, it provides real-world power systems for students to analyze and experiment with and allows students to become familiar with the type of equipment that they will be most likely work with when they graduate. As stated in section 1.4, the overall objective of this paper was to give readers new or additional ideas about how to utilize existing technology, or to design, build
. Four case study days are currently embedded in: ENGR 101 Introduction to Engineering Design, ENGR 201 Experiential Engineering, ENGR 321 Electrical Circuits and Devices, ENGR 391/392/393 BME/CompE/EnvE Capstone Design II. Through these case studies, students analyze the impacts of various technologies on society and consider how their future work will affect others. The case study format varies each semester. Engineering case studies sensitize students to experiences outside of the classroom [45-47], and increase critical thinking and engagement [48, 49]. Through the joint case study, which is implemented in ENGR 321, groups of two to three sophomores investigate various aspects of a case, which has technical and other elements
/ ˜aam.Prof. Tom Chen, Colorado State University Tom Chen received his Ph.D. from the University of Edinburgh. After spending 4 years with Philips Semiconductors in Europe, he joined the Department of Electrical & Computer Engineering at Colorado State University. Prof. Chen published more than 180 journal and conference papers in the areas of analog and digital VLSI design and CAD for VLSI design. Prof. Chen served as the General Chair of 2015 IEEE Midwest Symposium on Circuits and Systems, and as the Guest Editor of IEEE Trans. on Computer- Aided Design of Integrated Circuits and Systems Special Issue on Design Quality and Design Closure: Present Issues and Future Trend”, 2005. He also served as the Guest Editor of
and howthey can advance to more sophisticated scenarios. Like a computer game, students become excitedto improve their level of knowledge and go beyond a simple laboratory. They develop the datamodel, implement a base, then improve to intermediate and advanced models. Like a game, severalstudents often go beyond and develop additional scenarios of their own interest.1. IntroductionSimulation in education is a well-known and an established field. Engineering education, defensetraining, and medical exercises are a few noticeable examples. As part of the degree requirements,engineering students often learn how to use modeling and simulations for their future workplaces.Whether designing and constructing bridges, buildings, auto vehicles
Applied Science. Courses are approached from the perspective of thestudent whose primary interest is in technological innovation, whose primary concentration is onengineering and science courses, and who has little or no prior business education. As non-technical electives, they are designed to supplement a student’s engineering education. Thesecourses focus on the roles of inventors and founders in high-tech ventures. Emphasis is placedon the entrepreneurial leadership role, decisions the founder will face, and the sequential risksand determinants of success during the venture’s early growth phase. While stressing theimportance of disciplined management, we emphasize that these courses are about high-techventure creation and leadership, not
DSP demonstration and simulations, and with hardware/software platformsfor DSP implementation on small projects. These tools have proved to be interesting anduseful for the students to grasp fundamental knowledge in DSP. We have shown someactual classroom examples and homework assignments in both theory and practice. Alaboratory component in digital signal processing is highly recommended for seniorclasses. Our university has a relatively long history of offering classes in DSP at bothundergraduate and graduate level with emphasis on class projects and laboratory hands-on experience. We believe that it is important to introduce modern tools and softwarepackages at the right time, right place.Bibliography1. “Discrete-Time Signal Processing
QualityImprovement Process (TQIP), designed as an accountability framework, has beenimplemented to ensure that all Departments in the Division demonstrate their teachingeffectiveness and provide courses that remain competitive in the national higher educationmarket place. The TQIP extends a program developed by the University's central LearningSupport Network of using student-derived, national and local data on course evaluations as animpetus for improving teaching and learning. Currently, analyses of data from sources suchas the Course Experience Questionnaire (CEQ) and the Curtin Assessment of StudentSatisfaction survey, indicate that improvement in teaching and learning in many courses isdesirable and in some, essential.Data from the CEQ provides
. The survey tried todetermine which ones the students liked and which they did not. The students were also askedwhat other they would like to have been included or not covered at all and if they would haveenjoyed more hands-on or laboratory experiences. The next four questions were concerned aboutlogistics. The question asked the students if the program had changed their mind about graduateschool. All ten questions and the students’ responses are listed below (Note: (x2) denote tworesponses).1. What were your three favorite topics?Figure 1 shows the students’ rating their top three topics. Page 8.1123.6 Proceedings of the 2003 American
prepare students for targeted internships inadvanced process control and automation. The inaugural pilot workshop, titled SystemsAutomation Springboard to Internships (SASI), was held during the winter term of 2021. Studentswere sponsored by companies, who paid the workshop fee, and offered the students an internshipduring the summer of 2021.The content of the SASI workshop, spanning the full spectrum of automation, from fieldinstrumentation through enterprise control systems, is delivered through a mix of lectures,laboratory experiences, programming, and discussions with industry experts. The strength of theworkshop lies in the rich depth and variety of materials offered by a mix of eight industrialpractitioners and three academic instructors