possible amount of electricity. For sizing PV systems, students used the calculator available on the NREL website (National Renewable Energy Laboratory)7.4.4 Passive Heating and Cooling CalculationsIn the passive solar design (example in Figure 2), students were able to eliminate the need formechanical heating during the winter, a case that happens when heat gain in one day equates heatloss during the same day. To minimize heat loss, students added more insulation; and to increaseheat gain, students increased the size of south-facing glass. In the end, the thermal balancebetween heat gain and heat loss determined the appropriate size of south-facing glass needed forthe critical case scenario. The critical case scenario is typically
in ETTE. The researcher recommends that professionals consider the work of both theExtraordinary Engineers Project 8 and the work of Shanahan 10 in conjunction with thefindings of this study when recruiting females into the profession. According to the datafrom this study, females appear to be most influenced by their own personal interestswhen choosing ETTE as a career path. In addition Shanahan suggested instead of tryingto fix the girls make the classroom/laboratory environment more conducive andwelcoming of females. Furthermore, the Extraordinary Engineers Project indicated thatfemales desire a career that is flexible, will allow them to make a difference, enjoyable,has a good working environment, and has a good income. When talking
possibleexperiments. The course, low cost robot, three developed laboratory modules, and results of thestudent evaluations are discussed in this paper.Overview of Microcontrollers and Robotics CourseSeveral years ago the Computer Science Department in the Watson School of Engineering andApplied Science at Binghamton University we designed and began to offer an upper-divisionundergraduate course entitled Microcontrollers and Robotics1. This was done in response to thereality that an important application of computer science is that of using embeddedmicrocomputers to control hardware systems. These are ubiquitous in electronic devices foundalmost everywhere in modern society, and, in particular, in embedded control systems and robotsused in industry, science
is the experiences afforded students in the laboratory setting. Indeed, manyengineering technology students excel in coursework that fosters the tactile-kinestheticeducational domain. A host of students here at Alfred State College have alluded to thebenefits experienced in a laboratory setting where they are able to apply the theorypresented during lecture. This added dimension of application has been cited numeroustimes as the main reason for selecting an engineering technology curriculum over anengineering science curriculum. If the aforementioned can be agreed upon, thensimulating an industrial experience can also afford another opportunity to develop these
the LabVIEW software, the basics of LabVIEW are taught within the ENRG-1403course. Fundamentals of LabVIEW and examples are given in both the classroom and lab.The ENGR-1403 students are also not required to have previous knowledge of programmablelogic and software. The students learn programmable logic controller software and hardwareapplications through the use of programmable logic controllers that are in the ENGR-1403course lab. Note that only smatterings of students in the ENGR-1403 course, mainly those thatwork in industry, do have some limited experience with programmable logic.A fire alarm system systems laboratory is used in the ENGR-1403 course with the lecture. Thisfire alarm signaling systems laboratory has programmable logic
attitudes with respect to community service than did students and that only minordifferences existed based on participants’ age and gender.The current research builds from this prior effort. In Bauer et al., data were collected in theMultidisciplinary Engineering Laboratory, EGGN250, a sophomore level course in the fall of2004. This course was selected because it was required of all students and it preceded the courserequirements within the Humanitarian Engineering minor. In other words, the existence of theminor and the courses associated with that minor would not yet have impacted the students’attitudes. Using the same instrument, data was collected in the spring of 2007 in a senior levelcourse, a time period when most of the original student
. W. Johnson & R. Johnson, (5th Edition), Englewood Cliffs, NJ: Prentice-Hall, 1999.4. “Learning from Change”, edited by D. DeZure, Routledge, 20005. “Active Learning: Cooperation in the College Classroom”, D. W. Johnson, R T.Johnson, and K. Smith, Interaction Book Company, Edina, MN, 1991.6. “Self grading for improved learning”, M. Plett and D. Peter, AC 2007-523.7. “Self-Paced laboratory modules for engineering materials and manufacturing processeslaboratory course”, C. Skurla, AC 2007-1800:8. “On the Use of Students for Developing Engineering Laboratories”, B. Bidanda and R.Billo, Journal of Engineering Education, April 1995.9. “Assessment of multimedia and web-based instruction in a science-technology &society course”, P. Backer
away from theday-to-day research that draws us to the career in the first place. Satisfaction in teaching, whichis truly a passion of mine—was not to be found. I felt more like, and was, a person on stageattended by a cohort of TAs, speaking to an audience of 150 (sort of) interested students.Personal contact with students: to be avoided lest it take time from research, or more important,proposal writing. In a word (or three): what a mess.I felt a desire to focus more on personal scholarship, removed from the pressure of constantlyseeking money. I also enjoyed teaching, including working with more than 40 undergraduates inmy laboratory over the years at Michigan. This led to my search for positions in a smallerinstitution focused on teaching
nanotubes and or alumina particles using high energy mixing (usingultrasonication, high shear and pulverization), (b) electrospinning technique to manufacture anddeposit nanofibers (c) X-Y Computer controlled spray technique to deposit single wall carbonnanotubes on the woven fabric. The fabricated nanocomposite materials are then tested bystudents in Strength of Materials Laboratory using conventional tensile testing machine. Thispaper demonstrates limitless bounds of nanomaterials, as well as would eventually help tomodify and strengthen the existing engineering curriculums in materials, manufacturing, andmechanical and engineering technology.Introduction For the past five years, the research involving the fabrication and processing of
sure than the teachers. The same graph shows a parallel response until the‘disagree’, option separates the groups. There are also distinct separations between the agegroups demographic (left graph Figure 2). The survey included 777 students and 65 teachers,from a variety of school types.The eco-literacy scores for the undergraduates at the beginning of the module demonstratedthe low level of general ecological knowledge (Figure 3). Only 2.4 percent scored an A1(>85%), in this survey, this had risen to 16.3 percent during the last quarter of the module.The term examination would test their knowledge at the end of the module.The eco-footprint of the undergraduate cohort was calculated as part of a laboratory exerciseon eco foot-printing
, final, etc.)6. Comp Lect Computer lab lecture7. Lab Sh Exe Laboratory hands-on short exercises8. Lab Expm Team Laboratory experimentation – team work9. Forens Indiv Forensic analysis in-class exercises – individual work10. Forens Team Forensic analysis in-class exercises – team work11. Des Sh Exe Indiv Design short exercises in-class – individual work12. Des Sh Exe Team Design short exercises in-class – team work13. Des Proj Indiv Design projects – individual work14. Des Proj Team Design projects – team work15. Des Dev Lab Expm Design and development of new lab experiments16. Concept Gener Concept generation
JACQUELYN F. SULLIVAN is founding co-director of the Integrated Teaching and Learning Program and Laboratory. She co-led the development of a first-year engineering projects course, and co-teaches Innovation and Invention and a service-learning Engineering Outreach Corps elective. Dr. Sullivan initiated the ITL's extensive K-12 engineering program and leads a multi-institutional NSF-supported initiative that created TeachEngineering.org, a digital library of K-12 engineering curricula. Dr. Sullivan has 14 years of industrial engineering experience and directed an interdisciplinary water resources decision support research center at CU for nine years. She received her PhD in environmental
robots, trebuchets, and school team performance on the annual JuniorEngineering and Technology (JETs) exam. The community colleges worked with the highschools in their service areas to provide mentoring and guidance for both the students and theteachers (few of whom knew much about the JETs exam or building robots, etc.). The author andthe author’s school participated in these activities. Page 12.1322.2 During this same time period the author’s school received a Duke Energy Foundationgrant that created a state-of-the-science biotechnology/genetics laboratory. Also, a majorregional interest in creating the infrastructure for the
. Figure 3: EyasSat3 The complete satellite measures 20x20x25 cm and weighs approximately 2.3 kg, making it easy to transport between the laboratory and the classroom. It was designed to be taken apart and reassembled many times. This has enabled over 1,700 students around the
machine tool training on other machine tools. On completionof the prescribed exercise on the augmented milling machine, each participant within the Page 12.203.5experimental group was requested to complete the evaluation questionnaire. Studentswere allocated fifteen minutes to complete all sections and encouraged to criticallyevaluate their experience.Knowledge transferThree weeks following the original machining exercises, the entire cohort (control andexperimental) participated in a transferability experiment. Each student was randomlycalled to the milling machine from his or her regular laboratory work. A member of thetechnical staff requested the
Electrical Circuit Gear set Gear set and DC Voltage (V) and DC motor Measurement motor Figure 11: The picture of system in our electrical laboratory during tests Page 12.613.11The PMDC motors selected for our experiments are: the FA-130 and RC-260 PMDC23. Theexperimental results are given in table 2. In this experiment, the hydraulic door closer handle ismoved by hand without any stop for 90 degree
Microsoft Virtual Server. For example, VMware Workstation 5.5 (license required) supports DOS, Windows, Linux, FreeBSD, Netware and Solaris; whereas Microsoft Virtual Server 2005 R2 only supports Windows and limited Linux distributions. It was important for us to be able to emulate an environment with diversified platforms.Xen was not considered because it did not support Windows XP as the host operating system.Xen could be only hosted under Linux or NetBSD with a customized kernel. The Mac-basedvirtual machine solution based on Parallels was not considered because the department policyrequires students to purchase PC based machines.2. Laboratory Setup2.1 Preparation of the Virtual Machine for Student UseVMware Workstation 5.5
encouragingbonds between Universities and Industry: • Traditional funding for education from the government has decreased, or at best has fluctuated, over the past few years. Because of this, universities are looking for alternative ways to maintain research and development programs, laboratories, and even faculty so that they might attract the best and brightest students and retain the students that they currently have. Also, ways to stretch current budgets without diminishing the quality of the education must be explored. • Industry realizes that the universities are essential for training the workforce that they will someday employ. It is therefore essential that the education that they receive be
-dimensional steady state conduction solutions for cases where temperatureboundary conditions were prescribed. The present research expands the features of the programto include prescribed heat flux boundary conditions as well as convective boundary conditions.Moreover, the expanded program also handles transient cases so that students can watchtemperature changes in a material on a real-time basis. The addition of these boundaryconditions also now allows one dimensional problems to be solved by specifying a zero heat fluxcondition on opposing sides of the body.The solutions for the original version of the program were generated using a code developed forSandia National Laboratory which was DOS based. The revised program has replaced thiscomputational
better absorb those topics.Second, the initial run of this course proved to be too abstract. Not enough practical applicationwas provided. To the greatest extent possible, theory should be kept to a minimum, with greateremphasis on practical application. Virtually all of the standard classroom problems in AI are“toy problems,” which have little or no connection to what students would consider usefulapplications. Both classroom examples and laboratory experiments should focus on how toapply the techniques to real world problems.Finally, I was surprised that while the mathematics was difficult for the students, it was notactually beyond their reach, at least from a mechanical perspective. Technology students
component of the course introduces students to principles of engineeringdesign practice while developing design competencies in problem definition, idea generation,evaluation and decision making, implementation of teamwork, and process improvement.Introduction to Engineering Technology (ET 002) is a one credit-hour course which in the pasthas been used to teach basic computer skills to all the first-semester engineering technologystudents at Altoona College of the Pennsylvania State University. Traditionally, this course hasbeen a combined lecture and laboratory course focusing on topics such as microcomputerfundamentals, word processing, electronic spreadsheets, and basics of computer programming.Current state of Engineering Design at the Altoona
) attract talented undergraduatestudents from traditionally underrepresented groups to conduct research in emerging fields andmotivate them to attend a graduate school of their choice; and iv) provide a unique opportunityfor undergraduate students from schools outside the host institution to carryout research projectsspecially designed for the REU participants in state-of-the-art laboratories and motivate them toexplore opportunities available through graduate studies.The approach taken to accomplish the project objectives was to: i) develop an eight-weeksummer program that emphasized computer-aided design and hands-on laboratory experience;ii) develop team research projects combining electrical, mechanical and microsystem aspects ofmechatronics
deficiencies are in order to improve those characteristicsthat an effective team player should have.Introduction The Effective Teaming Laboratory at the University of Nebraska-Lincoln developed theTeam Effectiveness Questionnaire (TEQ) in 2001 to measure team effectiveness. It is composedof seven constructs considered to be necessary for effective performance of the team. The TEQhas three parts. The first part is used to collect demographic data and information on individualpreferences regarding teams and previous experience in teams. The second, where scoring is thefocus, is related to the seven constructs. Forty eight questions are asked in relation to theconstructs. The third section asks questions about teaming issues and the level of
collectively supportfive four-year ET undergraduate programs:[1] ‚ Architectural Engineering Technology (AET) in the Architecture Department ‚ Audio (AuET), Electronic (EET) and Computer Engineering Technology (CET) in the Electrical & Computer Engineering Department ‚ Mechanical Engineering Technology (MET) in Mechanical Engineering Department Page 12.417.2The curriculum of each ET program is designed such that students must complete: ‚ One 4-credit lecture/laboratory course in a basic science elective ‚ Two 4-credit lecture/laboratory courses in algebra-based physics ‚ Four 3-credit All University Curriculum (AUC
objectivemethods.Collaboration and integration are both powerful buzzwords in design and engineering education,but the two instructors’ experience in practice—during which they worked together on the designof a large medical laboratory—suggested that the typical collaboration between their two fieldsin an academic setting didn’t adequately convey the commitment and interdependence betweenarchitect and engineer that practice demands. Desk crits or short-term consultations don’t offerthe level of shared responsibility or peer critique and learning that a multi-year collaborationdemands. We wanted our students to gain from the depth and rigor that would come from a full-semester project.Such full commitments between disciplines are rare in academic settings. While
) based upon provenpedagogical methods. The two course sequence is named VECTOR (Vitalizing ElectromagneticConcepts To Obtain Relevancy) and adapts existing teaching techniques and laboratories toaddress three inter-related objectives: A) Create an undergraduate curriculum in electromagnetics which is relevant to students and shows the impact of this field on emerging knowledge and technologies. B) Employ modern tools, skills, and techniques to emphasize fundamental concepts rather than teach legacy materials emphasizing rote, analytical solutions. C) Create an effective introductory EM course which will pipeline students into the electromagnetics-photonics curriculum at OSU, including graduate programs.These goals, described in
ofManufacturing Engineering Technology, Electrical Engineering Technology, and IndustrialTechnology. The Departmental laboratories are outfitted with modern experimental equipment inthe areas of Manufacturing and Electronics. Through collaboration with high schools and localindustry the Department constantly seeks to provide avenues for future workforce development.These collaborative efforts culminated into the development of a novel educational program withsecondary schools to promote entry into engineering and technology programs, especiallyamongst girls and minorities. Available literature6-11 shows that if students can be engaged in thetools of the trades and provided with information, then they will have a greater desire to applythemselves in the
-100 for the past week, their scores from previous Page 11.749.3weeks, and an indication of the average score for all students who have done the assessment forthe week. This allows them to measure their academic effort (above or below average) and to seetheir improvement (hopefully) as they develop the concepts taught in the seminar into habits. Figure 1: Weekly Student Self-AssessmentThe seminar can be presented as a 3 hour program the first week of the semester, usually in theevening, and counted as either the laboratory for the first week of class or the homeworkassignment for the first week. It is important that
cement volumetric yield, thickening time, compressivestrength, free water, rheology, and fluid loss control. Computerized closed-loop control of liquidadditives 1) allow unused, uncontaminated cement to be hauled off location after an operation, 2)promote environmental responsibility by reducing the volume of waste cement hauled to alandfill, and 3) provide better quality control of slurries pumped "on-the-fly" due to betterdistribution of additives in the slurry and tighter computerized tolerances. Students arechallenged to always work towards environmentally friendly processes and use of flow regimeequations to vary viscosity. Laboratory tests are carried out to verify the predictions madethrough the regime equations.Surface slurries utilizing
Science Foundation; and Mentor for the Louis Stokes Louisiana Alliance for Minority Participation. Material and Energy Balances, Heat Transfer, Materials Science, Unit Operations Laboratory, and Statistics and Probability are some of the courses he has taught. He is also a Senator from Engineering to Tulane’s University Senate. In addition to his current teaching and research duties, his research experiences include an NSF-NATO Postdoctoral Fellowship at the University Karlsruhe, a German Academic Exchange Fellowship at the University of Freiberg/Sachsen and the German Federal Materials Laboratory, and an Alexander von Humboldt Research Fellowship at the German Aerospace Agency. He has