that facilitate both team success andindividual learning during team-oriented project-based learning. Of particular interest is the efficacyof collaborative learning approaches in general for individual engineering students. Our results froma large scale experiment provide no evidence that working on a successful and effective team affectsindividual exam performance. Thus, we will propose a qualitative study to determine the best waysto structure team work to enhance individual leaning.IntroductionFor a number of reasons, team-based projects are frequently included in software engineeringprograms. Educators integrate team projects into the curriculum to emulate real worlddevelopment situations, expose students to the challenges and benefits of
for information systems technologies. Global Engineering Education Conference (EDUCON), 2012 IEEE, IEEE,1-9.13. Hamada, M. (2008). An integrated virtual environment for active and collaborative e-learning in theory of computation. IEEE Transactions on Learning Technologies 1(Copyright 2009, The Institution of Engineering and Technology), 117-130.14. Hu, J., Cordel, D. and Meinel, C. (2005). Virtual machine management for tele-lab" IT-Security" server. Computers and Communications, 2005. ISCC 2005. Proceedings. 10th IEEE Symposium on, IEEE,448-453.Spring 2015 Mid-Atlantic ASEE Conference, April 10-11, 2015 Villanova University15. Kneale, B., De Horta, A. Y. and Box, I. (2004). VELNET: Virtual Environment for Learning
, may result in fewer minority studentsas well [1], [6].Fear of racism – research suggests that students who are susceptible to stereotype threat(potential interpretations of ones’ actions through an existing negative lens) often respond byadjusting behavior patterns to minimize or avoid similar situations [11]. Students of color andmore often African American college students at predominantly white institutions are oftenalready vulnerable to such negativism. Since study abroad is rarely required as part of theundergraduate curriculum, they are more likely to decline the opportunity even in the presence ofother incentives [11], [6]. Studying abroad is often marketed as a means to improve ones’ crosscultural experience. For the minority student
for Engineering Education The program continued to evolve each semester, with the Writing Consultants becomingmore integrated into the team. In the summer of 2000, the EG 1004 Lab Manual was rewritten.Among other changes, instructional materials, developed by the Writing Consultants as handouts,were incorporated into the manual. Lab report guidelines were also included. These providedstudents with a detailed look at the correct structure of a lab report. Further information onproposal writing was included in an appendix. Each semester, modifications to the writing program were made. The writing consultantsbegan to grade all student writing for professional style and use of Standard English. This changesubstantially improved
manufacturing and laboratory space for these degree programs, and is both acampus showpiece and a critical tool for implementing the kind of hands-on instructionimportant to ERAU. In this facility, students have access to equipment not normally available toundergraduate engineering students at most universities; the use of this equipment is regularlyincorporated into the engineering curriculum at ERAU. Features include a machine shop withadjoining light fabrication spaces (the latter for after-hours work), rapid prototyping capabilities,an astronautics lab with shaker tables and vacuum chambers and an air bearing, several loadframes as well as a large reaction frame for structural testing, and a materials science andmicroscopy suite. Students are
equations, wave propagation, and transmission line theory.The purpose of the in-class experiments and simulation demonstrations is to provide a strongerconnection between abstract theory and their physical meanings. By connecting themathematical concepts and engineering applications to the physical world, it generates moreinterests and in-depth learning, and reinforces the understanding of the underlying EM theory.I. IntroductionThe classical electromagnetic (EM) theory guided by Maxwell’s Equations has been around forover 150 years. It has an incredible impact on many modern technologies such as antennas andwireless communication, integrated circuits and computer technologies, remote sensing, lasersand optoelectronics, and more. Nowadays, with the
, GA.[4] Frontoni, E., Mancini, A., Caponetti, F., Zingaretti, P., "A framework for simulations and tests of mobile robotics tasks,"Control and Automation, 2006. MED '06, The 14th Mediterranean Conference on Control and Automation.[5] Nelson, M.L., Rice, D., "Introduction To Algorithms And Problem Solving," Proceedings 2000 Frontiers in EducationConference, Oct. 2001, Kansas City, MO.[6] Raymond, D.R., Welch, D.J., "Integrating Information Technology And Programming In A Freshmen ComputerScience Course," Proceedings 2000 Frontiers in Education Conference, Oct. 2001, Kansas City, MO.[7] Ludi, S. Collofello, J., "An analysis Of The Gap Between The Knowledge And Skills Learned In Academic SoftwareEngineering Course Projects And Those Required In
students.Table3: the performance of students’ self-efficacy toward physics learning group Mean SD F p-value Scheffe EMG 2.60 .334 IEG 2.56 .349 3.742 .01** (EMG, IEG) OEG 2.58 .354 total 2.57 .346Conclusion and SuggestionIn this study, we presented the reality of physics curriculum/learning in the universities oftechnology in Taiwan. Based on our finding, four of these finding and one potential researchissue are depicted bellow:Physics course should be integrated with life world and practical affairsThe students in universities of technology
elective courses in relevant disciplines suchas finance, telecommunications management, economics, and industrial engineering. A keyresource supporting the program is the Telecommunications Interoperability Laboratory1, afacility designed to provide students with unmatched access to carrier-grade telecommunicationstechnologies. Students entering the program are expected to have undergraduate preparation inelectrical and computer engineering. This paper describes the curriculum and program goals, aswell as the motivation behind their development.2. Motivation, Program Goals, and Organizational StructureTelecommunications is an important enabling technology which pervades all sectors of theglobal economy and the production of skilled technical
AC 2012-4158: CASE STUDIES IN ENGINEERING ECONOMICS FORMANUFACTURING COMPETITIVENESSDr. Priya Manohar, Robert Morris University Priyadarshan Manohar is an Associate Professor of engineering at Robert Morris University, Pittsburgh, Penn. He has a Ph.D. in materials engineering (1998) and graduate diploma in computer science (1999) from the University of Wollongong, Australia, and he holds a bachelor’s of engineering (metallurgical engineering) degree from Pune University, India (1985). He has worked as a postdoctoral Fellow at Carnegie Mellon University, Pittsburgh (2001-2003), and at BHP Institute for Steel Processing and Prod- ucts, Australia (1998-2001). Manohar held the position of Chief Materials Scientist at
: Competency Management Hall and LeCavalier (2000) define competency management as " individualized, Web-enabled curriculum maps or learning profiles based on job analyses" (p. 66). These maps orprofiles allow the learner to select and proceed toward an educational path by placing theresponsibility of learning in the student's hands. In lieu of pre-determined, static requirements,students would be allowed the opportunity to choose their path of study. As with traditional methods of education, rewards may be incorporated within thelearning process. One thought regarding rewards is to motivate the student through relevance topersonal activities or goals. The more applicable or interesting the subject matter is to the targetaudience, the
to the two DOF planar robot. This supports the need forformal introduction of mechatronics in the curriculum, because this skill set is required toeffectively compete in the robotics competitions and to successfully complete senior designprojects.6 ConclusionsThis work focused on broadening participation in engineering by introducing mechatronicsthrough experiential hands-on learning in the undergraduate Introduction to Robotics course.Although this was a first small study done on this topic in the ME program at UTA, theassessment data indicates the students lack a sufficient background in mechatronics to effec-tively compete in robotic competitions and integrate mechatronics components in the seniorprojects. However, some students from
Paper ID #25121Board 23: RET in Functional Materials and ManufacturingProf. Scott W Campbell, University of South Florida Dr. Scott Campbell has been on the faculty of the Department of Chemical & Biomedical Engineering at the University of South Florida since 1986. He currently serves as the department undergraduate advisor. Scott was a co-PI on an NSF STEP grant for the reform of the Engineering Calculus sequence at USF. This grant required him to build relationships with engineering faculty of other departments and also faculty from the College of Arts and Sciences. Over the course of this grant, he advised over
backgrounds. From these goals and commitments, programs such asthe RISE first year seminar were developed.The RISE first year seminar started as PRiSE, Promoting Retention in Science and Engineering,in the 2013 academic year. Students joined PRiSE to build community, receive mentorship,tutoring, and academic advising as well as be supported by the Center for STEM Diversity.Since its inception, PRiSE has transformed into RISE, the program it is today. During thistransformation, RISE has grown into an official Registrar approved two-semester seminar coursewith a curriculum focused on building a cohort of students who can support one another as theybuild their sense of belonging, self-efficacy and academic expertise. In creating andimplementing this
inengineering education as engineering curriculum focuses primarily on the technical skills neededto be an engineer. One route to teaching these reflective skills is with self-assessment (SA). SAhas value in the classroom due to the learning benefits and skills it promotes, includingmetacognition and self-efficacy, while providing the student with a chance to reflect on their ownwork. SA has been used in a variety of settings with different methods of implementation but thereare only a few documented uses in engineering. This study investigates the accuracy of studentself-assessment scores as compared to an instructor score to discuss the value of this exercise forengineering students when the grading scheme is broken down by objectives in three
scaffolds.Lee Meadows, University of Alabama Birmingham Dr. Meadows is a science educator employed as an Associate Professor in the Department of Curriculum and Instruction at the University of Alabama at Birmingham. His work focuses on teaching and on science education reform. He serves as the director for Alabama LASER (Leadership Assistance for Science Education Reform). Dr. Meadows is a participant in the Greater Birmingham Mathematics Partnership which focuses on improving mathematics instruction in middle school classrooms. Page 12.617.1© American Society for Engineering Education, 2007
explicit values statement says something about the orientation of theCentre. It reflects much of what the Centre is about.A Point of DifferenceThe Catalyst Centre differs from conventional engineering or technology based research centresin several fundamental ways. It is a small, agile learning nucleus within a larger organization andit does not depend upon particular pieces of sophisticated experimental equipment. Its modusoperandi is organic, situated and contingent. It is part of the community of practice not remotefrom it. The Centre takes an integrative approach to work, learning and innovation drawing onthe work of the Institute for Research in Learning and Xerox PARC (Brown and Dugid, 2000).The Centre is focused on people, process and
world. Wireless technology will be an integral part of this. Introduce many additional stimulating and challenging activities or student projects that will Page 22.1658.3 modeled after real-world situations in the laboratory 2 Initiate interactive pedagogical methods to increase class participation, and effective student- teacher communication.Implementation of new ideasThe concept of centripetal acceleration is often not understood properly, and students often confusethe pseudo centrifugal force as being a
programming language course is not required.Question 5 requested the system used if a programming language was not required. Question 6asked if arithmetic systems were used in two or more required courses in the curriculum, andquestion 7 enquired if a special course was used to make sure all students were proficient in thearithmetic system used.Question 8 was included in order to determine if a sophomore/junior-level engineering analysiscourse was required in the ME curriculum of the institution. Such a course would likely betaught by an ME faculty member and would emphasize algorithm applications (either in astructured programming language or an arithmetic system) of ME-oriented problems. Question9 asked if computer ownership was required by
).Stewart Ross, Minnesota State University-Mankato Stewart Ross is the founding Director for the Center for Excellence in Teaching and Learning at Minnesota State University. He holds a Master’s Degree and Ph.D. in Music Education from Northwestern University. He is an active presenter at colleges round the country on “Integrated Course Design.” He was Director of Bands at the university for 21 years prior to his appointment in the Center.Sharon Kvamme, Minnesota State University-Mankato Sharon Kvamme is a graduating senior in the Mechanical Engineering program at Minnesota State University, Mankato. She is a McNair scholar and currently serves as President of the local SWE student
thoroughly. There is a logical path to befollowed in the realization of the product. The rubric can be most readily illustrated through thefollowing instructions that are issued to students undertaking a project to design a manufacturingsystem for a given product.9 The context is that student teams in a ‘production engineering’class fulfill the learning objectives for the course through a semester-long project. Student teamsdesign a production system for an existing product. The products have been as varied as caststeel flow control valves, printed circuit boards and fishing reels. Integrated into the fabric of theproject, students are challenged to critique the product design to improve manufacturability andreduce cost. The first three stages of
Paper ID #41694Board 13: Work in Progress: Exploring Student Disposition in a FoundationalConservation Principles of Bioengineering CourseDr. Jennifer R Amos, University of Illinois Urbana-Champaign Dr Jenny Amos is a Teaching Professor in Bioengineering at the University of Illinois Urbana-Champaign. She is an AIMBE Fellow, BMES Fellow, ABET Commissioner and Executive Committee Member, two-time Fulbright Specialist in engineering education. Amos has over a decade’s worth of experience leading curriculum reform implementing robust assessment strategies at multiple institutions.Yael Gertner, University of Illinois Urbana
components these days arefar too small and complex to allow an inquisitive student to explore and satisfy their curiosityabout how these gadgets work. These students often take to exploring mechanical systemsinstead and are thus led away from Electrical and Computer Engineering. Similarly, withadvances in computer simulations of engineering circuits and models that produce realisticresults, engineering programs have transitioned away from physical hardware and hands-onexperimentation. This trend away from having students being able to "tinker" with real hardwareis detrimental to their development into well rounded engineers. In addition, as globalizationcontinues, engineers must broaden their team-work and technical skills.This paper describes a
thousands of students graduate every year.In this paper, the description of each institute or college will be reviewed. More detaileddiscussion will cover the Technological Studies College (TSC). Also, the chemicalengineering technology curriculum will be examined. Three mechanical engineeringtechnology programs in three different colleges, TSC and two American colleges, will bediscussed . TSC offers an advanced integrated technical program covering the basic andadvance courses, college workshops and industrial field training. On the other hand, it hasa poor program in the basic sciences, mathematics, social science and oral and writingcommunication.Historical BackgroundKuwait, is located at the northwestern tip of the Arabian Gulf. For many years
Rochester, and SUNY Utica/Rome. She currently the director of the Evansdale Library of West Virginia University where she has been employed for over seventeen years. In addition to STEM disciplines, she has experience in instruction, access, reference, and collection management.Amy S. Van Epps, Purdue University, West Lafayette Amy S. Van Epps is an associate professor of Library Science and engineering librarian at Purdue Uni- versity. She has extensive experience providing instruction for engineering and technology students, in- cluding Purdue’s first-year engineering program. Her research interests include finding effective methods for integrating information literacy knowledge into the undergraduate engineering
, the bottles may be shattered. To find the root of the problem a high speedcamera should be used.Using the camera we can narrow down the cause of the above problem. Judging the pattern ofthe phase difference between the motor shafts and how it acted at different speeds, we cannarrow down the troubleshooting and comment that the problem must be due to tuning of themotors. The problem cannot be due to a fault in the cam tables because the phase difference isvaries along with speed of the servomotors (Experiment 2).The servomotors are controlled by proportional-integral-derivative controllers (PID Controllers).This is a generic control loop feedback mechanism (controller). It calculates an "error" value asthe difference between a measured process
seem to indicate an increasing need for moretechnicians to install, maintain, service and repair this equipment. Why has the need fortechnician level personnel continued to decline?According to the National Science Board, the number of associate degrees earned inengineering technology dropped from more that 52,000 in 1981 to 33,000 in 1997, a 36%decline1. Across the United States, many schools have quietly dropped their electronictechnology programs for lack of student interest or local industry need. While there areno formal statistics maintained on the number of electronic programs, it is estimated thatthere are approximately 1000 AAS electronic technology programs in the US and thatover 20 programs have been discontinued in the past ten
Page 6.511.8The instructors’ basic philosophy is that very, very little time is spent in lecturing. Most of thelearning is hands-on, and through exploration and interaction with other students. The studentsare developing confidence in their abilities to solve problems, to be independent learners, and towork as effective team members.End Notes1 Hartman, David E., and Debra Larson, “Design4Practice”, Proceedings of the 28th Israel Conference on Mechanical Engineering, Beersheva, Israel, June 2000.2 Howell, S., D. Larson, J. Hatfield, K. Collier, G. Hoyle, and G. Thomas, "An Integrated Engineering Design Experience: Freshman to Senior Level", Proceedings, ASEE Annual Conference, Anaheim, California, 1995.3 http://www.boeing.com
satellite willcontinue to be used to deliver college course work to students. It is believed that courses will bedelivered to the individual students at their home sites. The MSEM program will stay modern and be the program to assist engineers to bringtheir companies into the 21st Century. Engineering Management will help engineers in theglobalization of their products and their companies. The MSEM program will be enhanced byadding a doctorate degree and perhaps even a BSEM which is an ABET accredited degree. TheEngineering Management curriculum integrates well with the Industrial Engineering degrees andeach adds a synergistic effect than makes each degree better than if it were the only one. Management indicated that there are two key
incorporating one ormore community-based engineering projects as the core theme of the course. Service learning is 3of vital importance in the engineering profession and must be integrated into the engineeringcurriculum at an early stage of career development. Engineering projects with aspects of servicelearning are both challenging and motivating to students entering the engineering profession afterSTEM studies at the high school level. In addition to teaching the students engineering design 4and practice in the context of society and values, and instilling the recognition of engineeringissues and concerns, engineering project activity with service learning components