field studies are needed for biology labs. Water analysisinstruments for use in the field and in the laboratory are essential for biology. For cell biologychromatographic apparati are essential to support fractionation. The following chromaticapparati are needed: (a) partition (paper), (b) thin-layer, and (c) column.Instruments are needed for use in chemistry to prepare materials and process samples. Topromote laboratory safety, eye wash stations, chemical storage cabinets and exhaust hoods withutilities are needed. Stills are essential to generate laboratory grade water for use in bothchemistry and biology.Models and PC software are needed for geometry courses so students can better grasp three-dimensional geometry for their pre-calculus
AC 2007-2695: MODELING COMPRESSIBLE AIR FLOW IN A CHARGING ORDISCHARGING VESSEL AND ASSESSMENT OF POLYTROPIC EXPONENTGlen Thorncroft, California Polytechnic State University Glen Thorncroft is an Associate Professor of Mechanical Engineering at California Polytechnic State University, San Luis Obispo. He received his Ph.D. from the University of Florida in 1997, with a research emphasis in Boiling Heat Transfer. His current activities focus on improvement of undergraduate laboratory education, including new experiments, instrumentation, and pedagogy in Fluid Mechanics and Thermal Sciences, as well as introducing Uncertainty Analysis into the undergraduate curriculum.J. Scott Patton, California
AC 2007-627: NEW FACULTY, UNDERGRADUATES, AND INDUSTRYCONTRACTS: OBSERVATIONS AND LESSONS LEARNED FROMENGINEERING PROFESSORSJames Squire, Virginia Military Institute Dr. James Squire is an Assistant Professor of Electrical Engineering at the Virginia Military Institute. He received a B.S. in Electrical Engineering from the United States Military Academy in West Point, NY and served in the army as a Military Intelligence officer during Desert Storm. Although his PhD is in electrical engineering, he completed his doctoral work in a biomedical engineering laboratory at MIT and has interests in analog and digital instrumentation, signal processing, biomechanics, patent litigation, and cardiology. At
component-level research and development, the Lab oversees the development ofnew facilities to enhance the development, testing, and integration of SSPL projects. One of theprogram’s key objectives is to create a vertically integrated laboratory where the dependence onoutside facilities or services is minimized. In the past year, the Lab has focused on improvingsuch facilities as thermal–vacuum systems for component testing and calibration; addingcapabilities for vibration testing; and preparing a satellite command and control station. Page 13.1253.7Beyond the development of facilities, the infrastructure development program is committed
and wastewater. Laboratory analysis to evaluate water qualitywill be performed, such as biochemical oxygen demand, suspended solids, pH, alkalinity,and others. A minimum of one laboratory exercise will involve the use of the computerto evaluate laboratory data.Civl 422 – Comprehensive Design Project in Environmental EngineeringApplication to civil engineering principles, through group studies and lecture, to developa solution for a comprehensive engineering problem devoted to water resources/environmental engineering.Course Closure Reports and Assessment Item TrackingA major emphasis of the Departmental assessment process is specifically focused onsystematic evaluation of all required Civil Engineering courses within the curriculum. Acourse
A.C. Motor Drives in an Introductory Power and Controls CourseAbstractThe induction motor is generally cheaper and more rugged than a dc machine. Thus, ac variable-frequency drives (VFD) have made induction motors the first choice for variable-speedapplications in industry. As a result, ac motor drives are an important topic for introductorypower or motors courses. The newest generation drives offer the ability to program the drives,either with a human interface module or via a link to a computer. One difficulty withincorporating variable-frequency drives into a laboratory portion of the course is the expense.“Name-brand” drives can cost more than $2,000, even for fractional horsepower motors, andsoftware to
pushes students to their creative limits through the use of open-ended projects in which realistic, complex, challenging state-of-the-art problems are investigated. This new approach will increase student enthusiasm and provide closer alignment of classroom topics with today’s standard industry practice. This paper will deal with a unique application of the research/teaching method used at the undergraduate level, using a hands-on laboratory approach in conjunction with classroom lecture. The approach can be tailored to all levels from introductory freshman to senior-level classes. An open-ended project is utilized, requiring a creative approach for its solution. Faculty and students are both learners and investigators, formulating and solving
of industrial and production facilities applying “hi-tech” solutions to automate and increase productivity. Steve worked Los Alamos National Laboratory in the Science Education Group (LANL/SEO) and at New Mexico Highlands University (NMHU). Steve is a Microsoft Certified Professional Internet Engineer (MCP+I), Microsoft Certified System Engineer (MCSE), Microsoft Certified Trainer (MCT), and is the author of “The Impact of Home Internet Access on Test Scores.” Currently, Dr Macho is an Assistant Professor of Technology Education for the State University of New York (SUNY) at Buffalo State College
undergraduate research, the students as the newcomers workunder the direction of faculty mentors and graduate students as the old-timers. The old-timersprovide expertise and resources to enable the student newcomer to engage in the practice ofresearch. Peer undergraduate researchers being a part of the research laboratory community alsoplay a key role in fostering a successful experience. Figure 1 illustrates the data collected duringthis effort in the context of the CoP theoretical framework. The two main tools utilized were theNational Engineering Students’ Learning Outcomes Survey (NESLOS) and weekly self-reflective journal entries. The figure illustrates that pre-NESLOS was administered at thebeginning of the REU experience (during the first day
AC 2009-2287: THE ENGINEERING SCIENCE PRAXIS SEQUENCE:CHALLENGES AND OPPORTUNITIES WHEN INTEGRATING SUSTAINABLEDEVELOPMENT INTO THE ENGINEERING DESIGN CLASSROOMJason Foster, University of TorontoAlexandra Heeney, University of Toronto Alexandra Heeney is a University of Toronto National Scholar in her 3rd year of undergraduate Engineering Science at the University of Toronto, majoring in computer engineering. She has been involved with Sustainable Development (SD) projects and SD education for several years, as a participant at the Design Science Laboratory at the United Nations in New York City, a delegate in sustainable development education for the Canadian Commission for UNESCO in Ottawa, and
AC 2009-2477: THE CHEMICAL THERMODYNAMIC MODULE OF THEEXPERT SYSTEM FOR THERMODYNAMICS (“TEST”) WEB APPLICATIONSubrata Bhattacharjee, San Diego State University Dr. Bhattacharjee is a professor of Mechanical Engineering at San Diego State University. His research areas include combustion, radiation heat transfer, and web-based numerical methods for computational thermodynamics.Christopher Paolini, San Diego State University Dr. Paolini is the Unix System Administrator in the College of Engineering and is the Director of the Computational Thermodynamics Laboratory at Mechanical Engineering Department. His research areas include chemical equilibrium analysis, adaptive algorithm, and AJAX based
implemented using VLSItechnology4,5. These designs require very little software beyond that for simple setup and control. In thecurrent paradigm, there is little link between advanced theoretical algorithms designed within laboratories andtheir final implementation to meet an application-specific need. The curricula of the early 1980’s reflected thelevel of digital design complexity of the late 1970’s. At that time the need for shorter design times, the needfor hardware/software codesign, and life cycle cost issues, brought on by increasing design complexity, had notbecome apparent. However, by the late eighties, the tremendous advances in electronics manufacturing technology andconcomitant increase in the complexity and capability of the
CONSTRUCTION 41017-311 UNIVERSITY PHYSICS I 4 | 0608-340 SURVEYING II 41017-312 UNIVERSITY PHYSICS II 4 | 0608-360 ELEMENTARY SOILS 41017-313 UNIVERSITY PHYSICS III 4 | 0608-420 HYDRAULICS 31006-350 APPLIED GEOGRAPHICAL INFO SYSTEMS 4 | 0608-421 HYDRAULICS LABORATORY 11011-208 COLLEGE CHEMISTRY 4 | 0608-432 WATER AND W ASTEWATER TRANSPORT 21011-272 CHEMISTRY OF W ATER & W ASTEWATER 3 | 0608-438 PRINCIPLES OF TREATMENT 41011-276 CHEMISTRY OF W ATER & W W LAB 1 | 0608-490 STRUCTURAL ANALYSIS
Manitoba, Winnipeg, MB, Canada.was born in Juazeiro, BA, Brazil. He received the B.Sc. degree in Electrical Engineering from the Federal University of Bahia (UFBA), Salvador, Brazil, in 1995, the M.Sc. degree in Electrical Engineering from the State University of Campinas (UNICAMP), Campinas, Brazil, in 1998, and the Ph.D. degree in Electrical Engineering in the field of photonics from the University of Maryland, Baltimore County, USA, in 2003. In 2006, he served as Faculty Fellow in the 2006 Air Force Summer Faculty Fellowship Program in the Wright-Patterson Air Force Research Laboratory in Dayton, Ohio, USA. In 2003, Dr. Lima received the IEEE LEOS Graduate Student Fellowship Award, and he was co
experience mustbe taken because extensive assessments are done and each student is tracked individually. Theengineering selectives ensure that students have a sufficient amount of design, laboratory, andcoverage of materials.Tailoring of the individual concentrations is mainly done in the engineering area and the area,and to a lesser extent in the general education program. The flexibility of the MDE program isillustrated in Table 2. For the student developed concentration up to 43.5% of the course creditscan be elective (although they must be chosen in the appropriate categories) and up to 50% of thecourse credits are either elective or selective. This flexibility allows the program to offer studentsthe opportunity to study almost any engineering
andmaintaining a physical lab. It was easier to deploy new projects in virtual environments. Webelieved that virtualization technology had become mature enough and it would help us delivercertain laboratory courses efficiently and effectively.2. Virtualization Software SelectionCurrently there are many different virtualization software packages available, notably VMwareWorkstation, Server, and Fusion (for Mac), Microsoft Virtual PC, Virtual Server and Hyper-V,Sun xVM VirtualBox, Parallels Workstation and Desktop (for Mac), QEMU and Xen.QEMU and Xen are open source projects and are released under GNU General Public License(GPL). However, they are not as user friendly as some other virtualization applications. Xen canonly run under Linux/UNIX systems with
interest by science and engineering. In addition to the general university-wide orientation content, STEM students receive intensive advising and course registration thatlinks to a first semester science or engineering oriented learning community (course cluster).Intensive math reviews, science and engineering laboratory activities designed in teams, andlunch with engineering and science faculty occur throughout the week of orientation to benefitthe students’ placement in learning communities.Course Content for STEM StudentsThe course content for the introductory science and engineering learning communities has beencontinually modified throughout the years. Placement in these courses is based on math andEnglish levels of preparedness. Typically
through the course’s laboratory experiments. Analog todigital conversion techniques and data acquisition systems are also studied in this course. Tohelp pull together the topics and concepts discussed in class, a rocket payload data acquisitionsystem is employed. As each device is studied, its application to the payload system is presentedand discussed. A thermistor is used to measure the air temperature at various altitudes. Amicromachined accelerometer is used to measure the acceleration of the rocket during launchand throughout the mission. Integrated silicon pressure transducers are used to measure bothaltitude and speed of the rocket. The axial speed of the rocket is determined by using the body ofthe rocket as a Pitot tube together with a
, reviews assessment data for eachelement, and offers recommendations to engineering schools wishing to establish their ownprograms for new and future faculty members.I. IntroductionThe default preparation for a faculty career is none at all. Graduate students may get sometraining on tutoring, grading papers, the importance of laboratory safety, and the undesirability ofsexual harassment, and new faculty members may hear about their benefit options, theimportance of laboratory safety, and the undesirability of sexual harassment, but that’s about itfor academic career preparation at most universities. This is an unhealthy state of affairs. Being a college professor requires doing a numberof things that graduate school does not teach you to do
a.m. to noon each day with aCEE faculty member and a dedicated graduate student on a research project for six weeks duringthe summer in their laboratories. In the afternoon from 1:00 to 5:00 p.m. the teachers tookprofessional development seminars taught by education and engineering faculty members andpracticing engineers, and went on four field trips. They also worked with a team of engineeringand education graduate Fellows working for a NSF Graduate K-12 Fellows Grant to developlesson plans that would be implemented in their classrooms before they finished the summer Page 11.183.3RET summer experience. They presented their research findings
, detergents,and bioplastics. The ethanol is used as a solvent and for transportation fuels. Additionally, anon-site cogeneration system provides electricity and steam for the conversion processes [14].The National Renewable Energy Laboratory (NREL) biorefinery concept (Figure 4) is built ontwo different "platforms" to promote specific product streams. The "sugar platform" is based onbiochemical conversion processes and focuses on the fermentation of sugars extracted frombiomass feedstocks. The "syngas platform" is based on thermochemical conversion processesand focuses on the gasification of biomass feedstocks and by-products from conversionprocesses. Page
junioryear. The laboratory lasts for approximately three hours and the students attend every otherweek. The typical class size is 12 to 15 students with lab group sizes of 3 to 4 students. In thesecond laboratory session, students perform mechanical sieve and hydrometer analysis (ASTMD422) and liquid and plastic limit tests (ASTM D4318) to classify soils using soil classificationsystems (e.g. Unified Soil Classification System). However, students typically express frustrationwith the standard test procedures to measure the liquid and plastic limits. To harness thisfrustration into something useful, an EML activity was implemented encouraging students toexplore and design alternative test methods.After completing the liquid and plastic limit tests
, University of Texas, Tyler Dr. Goh has worked as a Mechanical Engineering faculty of The University of Texas at Tyler. Prior to joining UT Tyler, he worked in the Systems Realization Laboratory at the University of Oklahoma from 2012 to 2015. He worked for the Korean government after he received his Ph.D. degree at Georgia Institute of Technology in 2002. Dr. Goh is a member of ASEE, ASME, TMS, and the Institute of Integrated Healthcare in the East Texas. He also worked as a member of the board of directors in the materials and fracture group in the Korean Society of Mechanical Engineers. He has published a total two book chapters, 30 peer reviewed journal and proceeding papers as well as a co-authored textbook
Paper ID #18202Digitizing and Remediating Engineering Assessments: An Immersive andTransportable Faculty Development WorkshopDr. Ronald F. DeMara P.E., University of Central Florida Ronald F. DeMara is a Professor in the College of Engineering and Computer Science (CECS) at the Uni- versity of Central Florida with 24 years of experience in Electrical and Computer Engineering disciplines. His educational research interests focus on classroom and laboratory instructional technology, and the digitization of STEM assessments. He has completed over 200 technical and educational publications, 34 funded projects as PI/Co-I, and
Paper ID #18195GLASS: Group Learning At Significant Scale via WiFi-Enabled Learner De-sign Teams in an ECE Flipped ClassroomDr. Ronald F. DeMara, University of Central Florida Ronald F. DeMara is a Professor in the College of Engineering and Computer Science (CECS) at the Uni- versity of Central Florida with 24 years of experience in Electrical and Computer Engineering disciplines. His educational research interests focus on classroom and laboratory instructional technology, and the digitization of STEM assessments. He has completed over 200 technical and educational publications, 34 funded projects as PI/Co-I, and
Center of the City University of New York in 1991. c American Society for Engineering Education, 2017 Incorporating Quantum Technologies into Engineering CurriculumAbstract: This paper first reviews the present status of quantum technologies that are rapidlymaking inroads to various fields of science and engineering. The author then suggests, in light ofthese developments, how one may incorporate the key principles, ideas, and topics of newquantum technologies into undergraduate quantum mechanics courses and laboratories to prepareand equip future engineers. Concrete examples of curriculum changes in modern physics,quantum mechanics, and advanced quantum mechanics courses are presented based on threeyears of
innovative teaching methods proposed in the flipped classroommodel as described herein.This paper focuses on the implementation of a flipped classroom for an undergraduate biomedical engineeringintroductory biomechanics course consisting of 77 junior and senior engineering students. Key aspects of thiscourse included pre-recorded video lectures, interactive problem-based learning during in-class time, onlinehomework, and applied examples of course content experienced during laboratory sessions. Unique assistancein the development of this course was provided by graduate students who provided significant contributions tothe prep work needed to prepare a course for the flipped classroom model. The purpose of this paper was todetermine the effectiveness
lab classes often experience dissatisfaction not because they dislike hands-on learning, but because they are overwhelmed by other components and deliverables of the labclass.At the other end of the spectrum, some hands-on learning has focused on very simplemanipulators that are designed to provide a qualitative reinforcement of concepts. One of thegoals of this NSF IUSE project is to create simple hands-on experiments that can be highlyportable for use in lecture rooms, laboratories, or even dorm rooms but can still go beyondqualitative demos and yield quantitative confirmation of engineering models. Due to advances inportable data acquisition devices, laptop computers, and affordable sensors, there is anunprecedented opportunity to make
Fluid Mechanics for annotating an online text and journals papers, with bothprompts by the faculty member seeding the annotation process, along with requirements forstudents to post and respond to questions or annotations made by others. The machine-learningalgorithms that are built into Perusall automatically grade student comments. The instructor canverify that the grade is consistent with their assessment.Referring to their annotated class notes, text, and optional online references, students can applytheir knowledge to design networks and step through the process of configuring network devicesin laboratory activities. As part of the reviews for exams, students can also annotate their classnotes, and their annotated textbook as well. In
, University of Illinois at Urbana-Champaign Andr´e Schleife is a Blue Waters Assistant Professor in the Department of Materials Science and Engineer- ing at the University of Illinois at Urbana-Champaign. He obtained his Diploma and Ph.D. at Friedrich- Schiller-University in Jena, Germany for his theoretical work on transparent conducting oxides. Before he started at UIUC he worked as a Postdoctoral Researcher at Lawrence Livermore National Laboratory on a project that aimed at a description of non-adiabatic electron ion dynamics. His research revolves around excited electronic states and their dynamics in various materials using accurate computational methods and making use of modern super computers in order to understand