of a real world problems. This includes an reflective thinking, ability to gain appreciation for solving a real world perspective, making connections, and problem and the connection and problem solving through a student communication required to accomplish reflection, modeled off of the survey and this. rubric of the CTLE.VI. Project SafetyRegardless of the work setting, industrial or laboratory, there are potential risks. Ensuring safework practices is of paramount importance. Operating companies place a strong emphasis onsafety by establishing procedures and methods to identify potential risks, developing andimplementing risk
industrial management, financial management, computer technology, and environmental technology, as well as leading seminars in the university’s general education program. Prior to academia, Mr. Hilgarth was employed as as engineer in the aerospace industry in laboratory and flight test development, facilities management, and as a manager in quality assurance. He has contributed papers on management, ground-test laboratory and flight test facilities, and ethics to several technical and professional organizations. In education, he has served as a consultant and curriculum developer to the Ohio Board of Higher Education and the Ohio Department of Education. He holds an M.S. in engineering management from the Missouri
Ohio State’s College of Dentistry and served as Director of Minority Student Recruitment and DENTPATH, a post baccalaureate program to prepare disadvantaged students for dental school.Dr. Wolfgang Windl, Ohio State University Wolfgang Windl is Professor and Graduate Studies Chair in the Departments of Materials Science and Engineering at The Ohio State University. Before joining OSU, he spent four years with Motorola, ending his tenure as Principal Staff Scientist in the Digital DNA Laboratories in Austin, TX. Previously, he held postdoctoral positions at Los Alamos National Laboratory and Arizona State University and received his diploma and doctoral degree in Physics from the University of Regensburg, Germany. His
3 COMM 101R, Public Speaking 3 Gen Ed, Soc ial Sc ience Perspective (S) 3 Page 12.1538.3Figure 1Three course in the first two years are dedicated to drafting and design. Those coursesare:MET 100 – Engineering GraphicsCourse (Catalog) DescriptionLecture 2 hours; laboratory 2 hours; 3 credits. A modern treatment of the basic principlesof engineering drawing, including graphing, orthographic projection, sectional views,multiview drawings, pictorial
theCETLs within the UK, and then will go on to discuss the learning, teaching and assessmentmethods used on a first year engineering undergraduate module, in order to promote learnerautonomy within the students. The module, ‘Materials, Manufacturing and EnvironmentalEngineering’, has traditionally been taught over 2 semesters through a series of keynotelectures, followed by seminars and laboratory practical classes. Previously, case study workwas undertaken by the students in semester 2 of the module; however, this did not developautonomous learning in an effective way. The new assignment project work in semester 2provided an opportunity for students to work in groups. Each group either undertookinvestigations into ‘engineering disaster management
not actually do anything of use inthe “real world”. Typical laboratory exercises are similar, and similarly dry. If our retentionpercentage is not what we would like it to be, we should not be surprised.Of course, there are a significant number of students who do not leave for the greener pastures ofmicroeconomics. Some of them already know that our discipline is rewarding in many waysother than a paycheck, possibly because they began tinkering with technology while in highschool. If we could give the rest of our students a first-year experience something like theexperience these tinkerers and radio amateurs give themselves, it seems reasonable to think thatour retention rates would benefit. That kind of experience can be provided by
EngineeringTechnology that includes a senior level capstone course in analog integrated circuit design. Thiscourse includes a two credit hour (six contact hours per week) laboratory in which studentswould normally perform six to eight individual “canned” experiments. Recently the author hasre-structured the laboratory to become a term-long group project in the area of analog integratedcircuits. This paper describes the results of one of these team projects.IntroductionThe objective of this capstone course is to expose senior EET majors to the design process foranalog integrated circuits by working as a member of a design team. Upon completion of thiscourse, a student will have been exposed to the processes of working in a team, picking an idea,researching the
attending included 51% Caucasian, 22% Hispanic, 16% African American and 11% other. Each program's format was similar but tailored to highlight a participating university's areas of expertise. Among the subjects covered in seminars were teamwork, problem solving, decision-making, and communicating effectively. Laboratory experiences included animated web-page design, computer-chip design, laser optics, computer hardware and more. WEPAN member universities which participated in the pilot project were Purdue University, West Lafayette, IN.; University of Puerto Rico, Mayaguez; The University of Texas at Austin; University of Michigan, Ann Arbor; Binghamton University, NY; and Georgia Institute of Technology, Atlanta. EXITE
development. Coursework and assignments aredesigned for students to gain topical knowledge, analyze and apply basic concepts, and expandwritten and oral communication skills. An early description of the course was reported byMcCloskey, et al.2.Students take and also evaluate the use of the Myers Briggs Type Indicator3. Corporate guestsfrom ExxonMobil and the Knolls Atomic Power Laboratory participate in some of the classes toreinforce some of the concepts and applications in industry. PD-1 is integrated into the SecondYear Introduction to Engineering Design (IED) course, which for most students is the first majorexperience in working in multidisciplinary teams, and they are crucially interdependent forsuccess. It is important to understand that the
activities. Results from student surveys andparent surveys will be presented. The paper concludes with recommended changes andimprovements in the program, as well as a discussion of adaptations that would create programssuitable for implementation at other institutions as well as programs aimed at a different targetpopulation.The three phases previously enumerated each build upon currently accepted educationalpractices. The robotics summer camp in particular used problem-based learning approaches,similar to those described in The Power of Problem-Based Learning2. This study clearlydemonstrates the significant benefits of teaching students how to think by using a problem-basedapproach. We also developed a mobile laboratory so that the summer camp can
appropriate equipment tosupport those labs. Computer and electrical engineering have an array of laboratories including anetworks lab and labs for electronics, optics, control systems, circuits, and projects. It iscommon to see computer science students working in electrical engineering project labs, andelectrical engineering students using the resources in the computer science project lab. From theviewpoint of both faculty and students, we appear to have more space and resources than we Page 12.1117.7would have if we were in separate departments.The UpsideThere are genuine advantages to the combined department arrangement. Each advantage alongwith a
in the mid 1990s, and the extension ofthe fee limit to £3000pa was introduced in 2005. The total fee accruing from an engineeringBachelors student is insufficient to pay the actual cost of delivering laboratory-basededucation, and so universities rely upon distributing the surplus fees from other disciplineareas and other business activities to support science and technology provision.The majority of students secure loans from the English Student Loan Company in order topay their fees; the debt being collected through the taxation system over the graduate’sworking life. Page 12.627.2It has thus, in the last few years, become increasingly
; Sons, New York. Everett and Swain, “Whirlwind I Computer Block Diagrams,” Report R-231, MIT Servomechanisms Laboratory, 1946. Gilmore, J. T., Jr., and H. P. Peterson, “A Functional Description of the TX-0 Computer,” Memorandum 6M- 4789-1, MIT Lincoln Laboratory, Lincoln, MA, October 1958. On-line (retrieved 8 July 2004) at http://bitsavers.org/pdf/mit/tx-0/6M-4789-1_TX0_funcDescr.pdf Goering, Richard, “Doors 'open' to hardware,” EE Times, 6 June 2005. Hanna, K. 2002. Interactive visual functional programming. In Proceedings of the Seventh ACM SIGPLAN international Conference on Functional Programming (Pittsburgh, PA, USA, October 04 - 06, 2002). ICFP '02. ACM Press, New York, NY, 145-156. Kay, A., “Computer Software
the first two years included introduction to engineering,statics, dynamics, electric circuits, and introduction to logic design, and introduction to computerorganization. During the first four years of the program delivery of courses was shared amongthe three colleges of engineering. As technology, faculty and curricula changed, NC Stateassumed more responsibility for the 2+2 programs. By 2001, all distance courses were beingdelivered by NC State faculty.Over the past twelve years, the technology has evolved substantially. 4,5,6 However, throughoutthis time we provided a combination of synchronous and asynchronous lectures, along with theon-site laboratories. Courses have originated from all three colleges of engineering, as well asfrom the
themselves, and the other at the Archeology Laboratory at CinnamonBay in the Park, demonstrating the close-range photogrammetry results to that point. The publicpresentation at the Leinster Bay factory site is shown in Figure 5. Figure 5. Wild introduces the virtual preservation project at the Leinster Bay site.The VICH defines the Humanities: “The humanities explore what it means to be human, throughhistory, literature, folklife studies, cultural anthropology, archaeology, philosophy, ethics,comparative religion, law, and the history and criticism of the arts.” 12 The notion of applying Page 13.1387.9engineering to explore what it means to
to sugar and 85-92% conversion of sugar to ethanol leads to anoverall process efficiency of approximately 50%.2,3,4 When looking at this kind of processefficiency, two major questions arise: is a biomass-to-ethanol process using lignocellulosicbiomass as a feedstock a sustainable solution? If not, what can be done to make this process aviable long-term alternative to fossil fuels? As part of their ENG1102 experience, MichiganTech students will answer these questions.Biomass-to-Ethanol FacilityThe basic design for the biomass-to-ethanol facility for the alternative fuel design process isbased upon an ASPEN Plus Simulation developed by National Renewable Energy Laboratory(NREL) in 1999. This process, shown in Figure 1, uses yellow poplar as a
courses with less available resources for thefaculty.4. “Hands-on” Demonstration of Concept: In some online laboratory environments somefaculty would like to see their students to demonstrate their understanding of the concept. This isnot an easy task for online students that take the course remotely. We recommend utilizingscreen-capturing software in which every movement of the cursor on the computer screen can becaptured and traced back. Our experience with experimenting with screen-capturing software at Page 13.338.4this stage is a work in progress. We should be able to provide more information of ourexperimental approach in the near future.5
Materials, Freshman Seminar, Introduction to Structural Design, Soil Mechanics and Lab, Structural Analysis, Structural Steel Design Laboratory, Small Scale Structures for Architects, Large Scale Structures for Architects, Reinforced Concrete Design Laboratory, Advanced Reinforced Concrete Design, Design Studio, Geology and Soil Mechanics • Graduate or UG/Grad: Building Performance Failures and Forensic Techniques, Nondestructive Testing, Forensic Engineering, Seepage – Flow Through Porous Media, Consolidation and Settlement, Geosynthetics, Shear Strength and Slope Stability, Shallow Foundation Design, Foundation Engineering, Rock Mechanics, Structural Dynamics
learning resources based onselected technological and science literacy standards; and disseminating the units to teachers intraining workshops and distance learning. Each unit has standards-based content, suggestedteaching approaches, and detailed learning activities including brainstorming, visualizing, testing,refining, and assessing technological designs. Students learn how inventions, innovations, andsystems are created and how technology becomes part of people’s lives.The primary goals of the project were to: 1. Create a model for standards-based instructional units addressing the study of technology and science to be implemented in grades 5 and/or 6. 2. Align contemporary classroom/laboratory instruction with technological literacy
AC 2008-657: TEACHING THE SN METHOD: ZERO TO INTERNATIONALBENCHMARK IN SIX WEEKSErich Schneider, University of Texas at Austin Dr. Schneider is an Assistant Professor of Nuclear and Radiation Engineering at the University of Texas at Austin. Since joining the UT faculty in 2006, Dr. Schneider has been active in the development of a modern nuclear energy systems analysis curriculum including courses in computational radiation transport and the nuclear fuel cycle. Prior to joining UT, Dr. Schneider was a Technical Staff Member in the Nuclear Systems Design group at Los Alamos National Laboratory
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