library contains classes to create basicshapes like point, line, triangle, rectangle, circle, polyline and polygon. Animations consisting ofdifferent frames of laser pictures can be designed. Moreover, animations can be generated withreal time properties.The Remote Experiment in the Laboratory for Process ControlThe remote experiment “Picture generation by laser deflection” is one of eight experiments in thelaboratory for process control at the University of Hanover and is the only one where students Page 9.584.6are assisted by a remote tutor. Students learn and apply basics of process control: industrial Proceedings of
impactedteaching through web based instruction 14,15,16, remote experiments 17, studio model courses 18,electronic text books 19, and distribution via CD-ROM 20,21.Present project concerns integration of simulation technology into undergraduate engineeringcourses and laboratories through the development of teaching modules (TM) for complementaryCFD, EFD, and UA. Knowledge of all three is essential along with optimization methods forrealization of physics-based simulation based design. TM include three parts: (1) lectures onCFD and EFD methodology and standard procedures and UA; (2) CFD templates for academicuse of commercial industrial CFD software; and (3) exercise notes for use of CFD templates andcomplementary EFD and UA. The commercial industrial CFD
An Inexpensive Laboratory Module to Teach Principles of NMR/MRI Alan V. Sahakian1, Christopher Hayes1, Bugrahan Yalvac2 Biomedical Engineering Department1 and School of Education and Social Policy2 Northwestern UniversityAbstractWe report the details of, and our experience with, a relatively simple and inexpensiveteaching laboratory apparatus which demonstrates some of the basic physical phenomenaand principles of Nuclear Magnetic Resonance (NMR) and Magnetic Resonance Imaging(MRI). Our approach uses two 2x2x1 inch Neodymium Iron Boron (NdFeB) permanentmagnets in the 0.6 T range, and large cylindrical (5 inch diameter, one inch thick) field-spreading pole pieces made of soft steel, along with a one-half
. Her interests include fabri- cation and materials at small scales, product design and development, and exploring ways to enhance how students experience and learn engineering and science.Prof. Rohit Karnik, Massachusetts Institute of Technology Rohit Karnik is d’Arbeloff Assistant Professor of mechanical engineering at the Massachusetts Institute of Technology, where he leads the Microfluidics and Nanofluidics Research Group. He obtained his B.Tech. degree from the Indian Institute of Technology, Bombay, in 2002, and his Ph.D. from the University of California, Berkeley in 2006 under the guidance of Prof. Arun Majumdar. After postdoctoral work with Prof. Robert Langer at MIT, he joined the Department of Mechanical
Session 3226 A Student Controlled Two-Degree of Freedom Vibration Laboratory S. D’Souza, N.W. Scott & B.J. Stone The University of Western Australia Abstract student controlled, safe and may be done at any time. LyonsIn recent years there has been a significant increase in the use [2] concluded that “a laboratory designed with this in mindof
AC 2008-1947: DEVELOPMENT OF AN ONLINE LABORATORY FORCOMPUTER-INTEGRATED MANUFACTURING COURSESYuqiu You, Morehead State University Dr. Yuqiu You has academic background from both automation engineering and industrial technology. For six years, she taught many courses in the area of manufacturing and automation. She has experience in developing new manufacturing courses and establishing online process control station for virtual laboratory. Presently, she is teaching NC-CNC machining technology, Computer Integrated Manufacturing, and Robotic Interface Engineering, Robotic Applications, and Fundamentals of Computer Technology.Xiaolong Li, Morehead State University Dr. Xiaolong Li has an
learning environment which incorporates hands-on activities,laboratory experiments, and a design project. These physically based activities allow for complexproblems to be included in the course so that a deeper level of knowledge can be attained forselected engineering mechanics topics. With the exception of basic data acquisition equipment,these class projects involve inexpensive materials and parts that are readily available at hardwarestores or industrial supply companies. The purpose of this paper is to provide sufficientinformation to allow the projects to be incorporated into engineering mechanics courses at otherinstitutions with minimal effort.II. Delivery Format of ENGR 220Louisiana Tech University operates on a quarter system with
in outdated buildings which were dueto be demolished. Materials labs which were previously discipline specific were now combined,so all majors would be able to perform the exact same experiments using brand new equipment.As part of the building design and prior to construction, many disciplines were invited to givefeedback on needs and think about how the lab could be a multi-functional space. Concurrentlywith the standard design practices, faculty participated in the laboratory design functionality ofthe building. Faculty met to determine how different majors could share spaces, equipment andlab exercises to the betterment of the college. A variety of positive and negative factors wereidentified. Some of the potential solutions to
44 analysis of flow using Gerris, an open-source framework to solve the governing equations (Popinet, 2003). The FlowEx interface allows for straight-forward CFD analysis of computer- aided-design (CAD) models to estimate velocity and pressure vector fields. These devices enable the comparison of experimental (PIV) and computational (CFD) data. The potential use of FlowCoach to enhance teaching of fluid mechanics is investigated in this paper. In a laboratory experiment, students used FlowCoach to acquire velocity data for water flowing around a square-shaped obstruction and then computed the pressure change along streamlines using
11. Understand engineering in broader context 1. Apply knowledge of science, math, & eng 9. Conduct & present research/design work 2. Design & conduct experiments
couple of problems related to the functionally ofthe unit were observed. In order to avoid problems in the future, an extra laboratory will beadded, designed to test the functionally of the unit. It is expected that the laboratory will beoffered again during the spring of 2013, and more experiments related to the used of the myDAQwill be included. References1. Foertsch, J., Moses, G., Strikwerda, J., and Mike, L., 2002, “Reversing the Lecture/Homework Paradigm Using eTEACH Web-based Streaming Video Software,” Journal of Engineering Education, Vol. 91(3), pp. 267-274.2. Latchman, H., Salzmann, C., Gillet, D., and Kim, J., 2001, “Learning On Demand-A Hybrid Synchronous/Asynchronous Approach
-release polymers to undergraduate chemical engineering students. This lab isintegrated into an upper level technical elective that is focused on mass transport in biologicalsystems and the design and application of diverse drug delivery systems. The lab serves as theprimary experimental experience in the course and is designed to build on principles learned inother core curriculum courses, as well as introduce new experimental techniques and analyticalequipment. The specific student learning objectives of the lab are provided below.After completing this laboratory, students should demonstrate the ability to: Explain the purpose of controlled-release drug delivery systems and the advantages/limitations relative to conventional oral
challenge of the GK-12 initiative is to design a program that best advances themultiple goals of the program:1. To broaden the education of science, technology, engineering, and mathematics (STEM) graduate students to include intensive experiences in educational pedagogy and process;2. To encourage the participation of STEM faculty and students in the difficult issues facing K- 12 educators through the nurturing of university-school partnerships;3. To assist K-12 teachers in their endeavor to improve classroom instruction; and4. To help schools improve K-12 student achievement in STEM.The first of these goals is accomplished in STEP through the graduate-Fellow summer trainingprogram detailed below and through the direct interaction of the
course offered by the Mechanical Engineering Department atTuskegee University is a part of the freshman design experience. This freshman designexperience is currently structured as a two-semester sequence: engineering graphics in the firstsemester (Fall) and the freshman design course in the second semester (Spring). These courses Page 26.925.4meet once per week, and are taught in a laboratory format. The engineering graphics course 3meets for three hours, with one hour of lecture and two hours of laboratory practice time. Thefreshman design course meets for two hours. In the engineering graphics
the springsemester of their junior year, when the first of two engineering experimentation courses is taken;the first course covers basic experimental methods, and the second the design of experiments Page 25.459.2during the fall semester of their senior year. In addition to the increased demands of being ableto write an engineering report, many students at this point are rusty in the grammar department.To overcome these difficulties a one or two lecture refresher in grammar was used along with are-introduction to the report writing format at the beginning of each of the two courses. Thestudents were also provided with a WORD document that is a
Paper ID #18035Assessment of an Introduction to Electrical Engineering Laboratory CourseDr. Gary H. Bernstein, University of Notre Dame Ph.D. in Electrical Engineering, Arizona State University, 1987. University of Notre Dame, 1988-present. Frank M. Freimann Professor of Electrical Engineering. Research in nanotechnology. Co-founded Indiana Integrated Circuits, LLC (www.indianaic.com).Dr. Kerry Meyers, University of Notre Dame Dr. Kerry Meyers holds a Ph.D. in Engineering Education (B.S. & M.S. Mechanical Engineering) and is specifically focused on programs that influence student’s experience, affect retention rates
members.Stresses and deflections that govern the design of structures and structural members are usuallydetermined from equations and formulas that are based on the theoretical concepts or theoriesand mechanical properties of the associated materials. Even if an advanced theory is used todetermine the deflection of a beam, for example, the computed deflections cannot be used inpractical design unless the mechanical properties (Young’s modulus in this case) of the materialsare accurately determined. Such properties are available only after careful experiments havebeen carried out in the laboratory. Furthermore, many practical problems are not amenable totheoretical analyses alone, and in such cases physical simulation is a necessity. For these andother
thatthey have learned as undergraduates. This learning system utilizes virtual laboratories that areindustrially situated where student teams take on the role of process development engineers.They are tasked with finding suitable input parameters to a process so that it can be released tohigh volume manufacturing. They complete the task though experimentation, but theexperiments are completed virtually. When students interact with the virtual equipment, there islower cognitive and haptic demand required to perform experiments than would be needed ifworking with physical equipment. This aspect affords students the opportunity to build a richexperimental design based on interpretation and iteration.4 While not explicitly instructed to doso, most
Session 2526 Teaching the Principles and Practice of Uncertainty in the Undergraduate Laboratory Sheldon M. Jeter Georgia Institute of TechnologyINTRODUCTION Uncertainty is the estimate of the confidence interval for a measurement. Somereasonable estimate of the uncertainty is almost always necessary. For one example, an estimateof the uncertainty is necessary to assess the reliability of measured data for use in design oranalysis. An uncertainty estimate is also needed to evaluate the confidence interval when themeasured value is to be compared
. American c Society for Engineering Education, 2021 Qualitative Analysis of Lab Skills in CHE LabAbstractTo better understand the change in student perception and abilities in a CHE laboratory course, amulti-dimensional survey was administered to two different student cohorts: one with atraditional lab structure and one with a revised lab structure. While quantitative data from theself-assessment and lab skills test has been analyzed [1], this work presents analysis of one of theopen-ended responses questions on the lab skills test. This study was motivated by the desire tounderstand the impact curriculum revisions have on student experience and abilities. The data setfor this project
in addition to using our traditional laboratory materials, when we teach in alaboratory environment today [1-4]. Traditionally, we have used simulation laboratories (using either OPNET by Mil3, orCOMNET by Compuware) in addition to using off-the-shelf network equipment such asrouters, bridges, and network cards. These laboratory settings gave our students an insight Page 7.1191.1 “Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition Copyright ? 2002, American Society for Engineering Education”into how to design computer networks and run different scenarios under
4.1 Research 1.2 Administrative Organization 4.2 Research Groups 1.3 The Faculty Applied & Computational 1.4 The Student Body Mechanics & Design 1.5 Academic Laboratories & Computing Facilities Ceramics & Metals 1.6 Operational Efficiencies Combustion & Fuels 1.7 The Advisory Council and Its Role Energy Systems2. Graduate Programs Fluid Mechanics 2.1 Office of Graduate Studies Heat Transfer 2.2
Paper ID #17762MAKER: Generations of NC Machining through Laboratory WorkDr. Sangarappillai Sivaloganathan, United Arab Emirates University Dr Sangarappillai Sivaloganathan – Siva is a Srilankan by birth and a citizen of the United Kingdom. His experience in Sri-lanka started with an year’s post-graduate apprenticeship in the manufacturing shops of the Government Railway and nine years in the Cement Industry. He graduated as a Mechanical Engineer from University of Srilanka, and obtained his Masters from the University of Aston and PhD from City University of London, both in the UK. He started his career in the UK as the
4Each of the 16 GTA’s is designated for a specific experiment. It should be pointed out here thatthe lectures of the experiments are given by the chemical engineering faculty (each of the 16experiments have 20 minute lectures from different faculty.) The laboratory begins after the firsttwo weeks of lectures since the students have now been familiarized with all the fourexperiments. Once an experiment has been conducted, the group has 14 days to submit a formal Page 2.253.3report. This report is graded for its technical content by the ChE faculty, and for its writingeffectiveness by the Writing Program Specialist (more about it later) who works
of a Laboratory-Based Course in Lean Six Sigma NanomanufacturingAbstractWe are developing a laboratory- and project-based Lean Six Sigma Nanomanufacturing courseunder an NSF Course, Curriculum, and Laboratory Improvement Grant, Type 1. The laboratory-and project-based course will teach Applied Engineering Technology (AET) studentsnanomanufacturing by combining hands-on nanotechnology laboratory experiments and SixSigma analysis with lectures on Lean manufacturing principles and implementation. AETstudents will be introduced to nanotechnology principles, projects, and laboratory procedures byworking with leading faculty members through classroom instruction, guest lectures, and fieldtrips. During an 11-week term, the
). The researchers work at a teaching institution in California so the majority ofthe development work will be conducted during Summer 2004 and Summer 2005. The PI, Dr.Julio Garcia, is primarily responsible for designing and creating the laboratory experiments andthe co-PI, Dr. Patricia Backer, is responsible for the creation of the multimedia learning materialsin WebCT.In Fall 2004, Tech 167 is being taught as a traditional lecture/laboratory class in order to collectbaseline data for this project. This project includes student assistants from the ECT concentrationwho will assist in the development and assessment of the web-based lecture and virtuallaboratory modules. The researchers have assembled a team of student assistants who areworking in
Lab 7: Thermal Measurements Low level / as is Lab 8: Sensor Application Integration MediumThe original experimental design also distributed amongst the categories the type of lab report(formal or in-formal) required; however, this part of the experiment had to be abandoned due theinstructional changes caused by quarantine. After each lab, students were invited to complete a brief survey about their experience with the lab instructions. (Figure 5) The survey was distributed within the Canvas learning management ECET 351 students, Following each of the 12* labs throughout this course, there will be a short 3 question survey. This survey is for research purposes only and will NOT be associated with your grade
and design a simple experiment to see if thesilver nanoparticles suppressed bacterial growth compared to a control [16], [17]. Distill a Principle Used in a Device or Area of Research The third strategy involves distilling a principle used in some device or area of researchinto a phenomenon that students can explore in the classroom, such as an atomic force microscope(AFM). AFM can capture images of objects smaller than the wavelength of light by using someimaging tricks to amplify the signal from the probe. If a small movement changes the angle asignal, such as from a laser, then that change can be amplified if the distance between the signaland detector is increased (Figure 3a). To teach this concept in the classroom in a more
lossof signal. The AE tool utilized is the Mistras software developed by the Physical AcousticCorporation which is designed to collect predetermined information. As the load is applied thesensors receive data until the experiment is terminated. The Mistras software records andprocesses this data. Page 2.20.8 8Student Evaluations Of The NDT LaboratorySeveral questions regarding NDT procedures implemented into the curriculum were posed to thestudents after the completion of the laboratory exercises. Questions were also directed to a groupof students enrolled in the same course during the previous
therewould be a time of class discussion, comments, or a class activity. Frequent surveys weregiven to the students for formative assessment throughout the course. Some courses weredevoted to student presentations on the new topic.Laboratories:The laboratories consisted of a mix of simulation and hands-on experiences. A fulldescription of these can be obtained from the author upon request. A brief discussion ofthe hands-on laboratories (with hardware) is included here: 1) Inverted Pendulum system: The hardware for this experiment is from Quanser systems, Control Challenges: Linear: Inverted Pendulum3. If traditional Page 12.529.4 undergraduate