complete a Senior Project to earn the BS-ETT degree.To support both teaching and research for the EVE and ETT programs, WSU has established twoindustrial-standard laboratories as shown in Fig. 1 through the support of the DOE grant: The Energy Storage Lab, located in the Danto Engineering Development Center, provides for the testing of energy storage devices and systems with a focus on batteries and fuel cells at the cell, module, and pack system level. The Electric Propulsion and Integration Laboratory, located the Engineering Technology Building, provides for the testing of different types of power electronic converters and electric machines and machine drives/controllers for electric drive applications
standards in such areas as course development, faculty training, student services,learning resources, infrastructure, and outcome assessment.Maintaining equivalency between traditional and distance learning courses become particularlychallenging when the courses contain laboratory components. It may be practical to provideonline laboratory experiments involving purely software activities. Examples of software orientedactivities may include remote access to servers for network analysis, and remote configuration ofswitches and routers for configuring a wide area network scenario, simulating electronic circuits,simulating thermal systems, simulating fluid systems or developing computer programs using acompiler such as Visual Basic. However, laboratory
and evaluate the finalprojects. The projects also have been very instrumental in placing students in localcompanies.ConclusionInternal support such as adequate laboratory space, tools and modern equipmentconducive to innovation and creativity; graduate assistants support to monitor and assistthe students on their projects, extended lab hours, incentive for students to do outstandingwork and faculty with keen interest in continuously updating the teaching materials arepart of the successful operation of a senior project course. Leveraging the serviceorganizations of the institution to take part in the student training is highly desirable. Afaculty who has been in the industry and is current with state of the art practices cancontribute
- credit hours and clock time are riate to their ranks and unequal). In effect, the schools tenure? are telling teachers that run- --------- ning a lab is not teaching • • 11 11 The sad state of Philippine engineering laboratories is in part directly attributable to the lower per clock hour salary associated with it. This rule may help to make the labs
your supplies and equipment as late as 2 to 3 months. Inthe beginning, an immediate problem was a lack of space for establishing research laboratories,thus added facilities were needed. This was circumvented by writing a proposal with the help ofthe administration and that grant made it possible to build another new building that wascompleted in the 1988 time frame. This relieved some congestion for the physics faculty.Roles and Responsibilities of Graduate FacultyGraduate faculty members are required to fulfill teaching duties, be abreast of frontiers of Page 12.1239.5knowledge, develop competitive research proposals, and publish research
corporation,AdvanceTek, and an international corporate institution in Malaysia have also proven invaluable,as have efforts to redefine the budgeting process by Indiana University through theResponsibility Center Management (RCM) system. At the heart of these new developmentsstand the PSET faculty and their students, two essential groups that are pursuing efforts toexpand the collaborative community of PSET through teaching, research, and service. Page 3.255.2Purdue School of Engineering and Technology at IUPUI OverviewThe Purdue School of Engineering and Technology at IUPUI is the largest undergraduatedegree-granting unit at IUPUI, serving a total of
Engineering in collaboration with Armstrong Atlantic State University, GeorgiaSouthern University, and Savannah State University. In the summer of 1999 with the fundsfrom Georgia Tech, the computer laboratories and teachable lecture room facilities at GeorgiaSouthern University were updated and equipped with computer projection systems, Elmo units,SMART BOARDS and other instructional technology equipment to meet the demands of theGTREP program. The paper presented discusses the methodologies currently utilized in theseimproved facilities to enhance the teaching effectiveness of the instructors and the coursecomprehension of the students.During the fall semester of 1999, these methodologies were employed to provide instructions fora total of about two
” fundamentalsto non-electrical/electronic majors. Yet the demands of industry for multi-disciplined B.S.graduates are increasing as more high-technology firms strive to become increasingly effective andefficient in the global marketplace.This paper describes the development of a multidisciplinary instructional package for teaching acircuit and system-design sequence. It includes a: (1) theory-oriented text that emphasizes the connection of engineering-technology technical material to the physics, (2) companion laboratory-experiments text required to reinforce the theory, and (3) technical-communications text to assist students in learning and tying written and verbal communications to their newly-found knowledge.More than ten
DISTRIBUTED DESIGN IN THE ELECTRICAL ENGINEERING DEPARTMENT AT THE UNIVERSITY OF WISCONSIN – PLATTEVILLE Mesut Muslu Electrical Engineering Department University of Wisconsin – PlattevilleAbstractA variety of processes and methods exist to teach engineering design in universities today.Although some programs introduce simple design projects in freshman year, many programsprovide design experience through a few concentrated courses in junior or senior year. Manystudents report that design methods are typically taught in high-level courses and in acompartmentalized fashion. In such cases
wasuseful as a preparation for teaching. One student put it this way, “After a summer oftraining, I feel confident entering my high school and I am looking forward to my firstteaching experience.” This perception was explored through several questions on the surveyand in the interviews. When the question was put as a simple up-or-down vote eleven of thetwelve Fellows felt that the training program had helped them plan for the upcoming year.A major issue for the Fellows was the need for greater practice at applying many of thethings that they learned during training session. Ironically several Fellows suggested thatnot enough attention had been paid to their own learning style of absorbing theory throughapplication in the laboratory or in simulation
new educationalsoftware for use in thermodynamics and fluid-related disciplines. In the past, educationalsoftware has been created for use as teaching aids, design tools, and even electronic textbooks.Where this project differs is in its emphasis on integration into the existing thermodynamicscurriculum while simultaneously allowing improvement in teaching methods. Factorsinfluencing the improvement of any course include a clear determination of course objectivesand evaluative procedures. Comparison of the teaching and learning styles is another factor.Research shows that traditional teaching methods for thermodynamics leave gaps in theeducational landscape. Whereas some software is designed independent of theseconsiderations, the goal of
students with a national labs, beneficial relationship building withand guidance from program managers, and cross-discipline collaborations.5.2.3 Tenure Track Mid-Career Faculty Research indicates that participating in a professional development programs, positivelyimpacts mid-career faculty’s life inside and outside of the academy10. In addition, facultyreported that their energy and enthusiasm was recharged from these experiences. Facultyobserved enhancement in their knowledge, teaching satisfaction, and confidence10. Recognizing needs unique to mid-career faculty, the COE Faculty Development Officeprovides programs tailored to promote productivity and career refreshment such as NSF fundingagency and national laboratory trips to renew
annually to the most innovative teacher at WSU. (509) 335-4103 (Off); (509) 335-4806 (Fax); bvanwie@che.wsu.edu.Gary Brown, Washington State University Dr. Gary R. Brown obtained a PhD in Education from Washington State University in 1994 and is currently the Director for the Center of Teaching, Learning and Technology at Washington State University. 208-818-1413; browng@wsu.edu.Paul Golter, WSU Paul B. Golter obtained an MS from Washington State University and is currently pursuing his PhD while working as the Laboratory Supervisor in the School of Chemical Engineering and Bio-engineering at WSU. He is married with two children.509-338-5724
laboratories (also known as e-Lab,Tele-Lab)3,4, virtual laboratories6,7,8,9, and hybrid laboratories4 have been developed to reduce labequipment setup costs and increase accessibility. Other developments include the use ofinteractive7, multimedia-enhanced10,11, and integrated12 approaches and the Design-Build-Testconcept13 to make learning more interactive and visual. However, there have been relatively fewattempts to use technology to teach PLC programming.One of the authors was recently awarded a National Science Foundation grant to develop anIntegrated Virtual Learning System (IVLS) for PLC education that incorporates intelligenttutoring systems, simulations, and animations. A prototype version of this system, known asVirtual PLC, can be found at
conceptual understanding.GeoGebra vs Traditional Tools for Phasor DiagramsEngineering higher education has seen several changes in the last decade. One such change hasbeen an increasing use of simulation environments based on but not limited to Matlab[1],LabVIEW[4], Excel macros[5], Javascript[6, 7], GeoGebra[2, 3] etc. in classrooms and laboratories toaid active-learning. Active learning has been widely associated with enhancement of studentlearning, however, in order to achieve full potential of active learning tools, it is very importantthat the tools be freely available, well-structured, and intuitive. GeoGebra developed by MarkusHohenwarter is one such open-source mathematical simulation environment intended forlearning and teaching mathematics
Implementation of a Lab Section for Electricity and Magnetism with Transmission LinesEve Klopf and Aaron ScherDepartment of Electrical Engineering and Renewable Energy, Oregon Institute of TechnologyAbstract:This paper focuses on the implementation of a laboratory section for an undergraduate coursein engineering electromagnetics. In Fall 2018, both Klamath Falls and Portland-Metro campusesof the Oregon Institute of Technology adopted a laboratory section for EE 341: Electricity &Magnetism with Transmission lines, which is a required class for all electrical engineeringstudents. This paper will discuss the laboratory activities, outline the challenges we faced whenaltering a well-established class to include a laboratory section, and
in 1987 and a Ph.D. in 1995. He is a reg- istered Professional Engineer with the Commonwealth of Virginia. With more than 13 years professorial experience, he has taught a large variety of courses including statics, dynamics, mechanics of materials, graphic communications, engineering economy, and construction planning, scheduling, estimating, and management.Chung-Suk Cho, University of North Carolina, Charlotte Dr. Chung-Suk Cho is an Assistant Professor at the University of North Carolina at Charlotte, Department of Engineering Technology. His teaching and research focus on project scope definition, pre-project planning, sustainable construction, project administration, construction safety, construction
simulations of virtual models, environments, and processes. The centerprovides a unique laboratory/classroom environment for immersive interaction with models,environments, data, and processes in engineering and the sciences. The center merges teaching andresearch activities into a powerful discovery environment in which faculty and students share a problem-solving tool for exploration of any subject using methods that are impossible in a physical laboratory.The first course that will be implemented in the classroom is our freshman engineering problemsolving/programming course using Matlab.The different phases of design and implementation of this very sophisticated classroom as well as the firstsemester teaching and learning experiences in this new
simulations of virtual models, environments, and processes. The centerprovides a unique laboratory/classroom environment for immersive interaction with models,environments, data, and processes in engineering and the sciences. The center merges teaching andresearch activities into a powerful discovery environment in which faculty and students share a problem-solving tool for exploration of any subject using methods that are impossible in a physical laboratory.The first course that will be implemented in the classroom is our freshman engineering problemsolving/programming course using Matlab.The different phases of design and implementation of this very sophisticated classroom as well as the firstsemester teaching and learning experiences in this new
simulations of virtual models, environments, and processes. The centerprovides a unique laboratory/classroom environment for immersive interaction with models,environments, data, and processes in engineering and the sciences. The center merges teaching andresearch activities into a powerful discovery environment in which faculty and students share a problem-solving tool for exploration of any subject using methods that are impossible in a physical laboratory.The first course that will be implemented in the classroom is our freshman engineering problemsolving/programming course using Matlab.The different phases of design and implementation of this very sophisticated classroom as well as the firstsemester teaching and learning experiences in this new
Paper ID #39693Board 200: A New Mentoring and Undergraduate Research Experience Modelbetween REUs and RETs at the Stevens REU/RET Site Program on Sustain-ableEnergy and BioengineeringDr. Patricia Muisener, Stevens Institute of Technology Dr. Patricia Muisener is a Teaching Professor and Associate Chair of Graduate and Undergraduate Educa- tion in the Chemistry and Chemical Biology Department at Stevens Institute of Technology. She teaches and coordinates General ChemistryProf. Pinar Akcora, Stevens Institute of Technology Pinar Akcora received her Ph.D. in Chemical Engineering at the University of Maryland-College Park in 2005
Paper ID #9250Effects of Continuous Teacher Professional Development in Engineering onElementary TeachersDr. So Yoon Yoon, Texas A&M University So Yoon Yoon, Ph.D., is a post-doctoral research associate at Texas A&M University. She received her Ph.D. and M.S.Ed.in Educational Psychology with the specialties in Gifted Education and Research Methods & Measurement, respectively, from Purdue University. Her work centers on the development and validation of instruments, particularly useful for P-16 STEM education settings (e.g., the Revised PSVT:R, the Teaching Engineering Self-efficacy Scale [TESS], the extended
Paper ID #34004Virtual Intensive Training for Experimental Centric Pedagogy TeamMembers: Effectiveness During COVID-19 PandemicDr. Oludare Adegbola Owolabi P.E., Morgan State University Dr. Oludare Owolabi, a professional engineer in Maryland, joined the Morgan State University fac- ulty in 2010. He is the assistant director of the Center for Advanced Transportation and Infrastructure Engineering Research (CATIER) at Morgan State University and the director of the Civil Engineering Undergraduate Laboratory. He has over eighteen years of experience in practicing, teaching and research in civil engineering. His academic
hybrid delivery methods. For example, in the simulation, learners can explorethe procedure of switching or handing off a mobile phone from one cell to another as it movesacross cell boundaries in a system of different sized cells. The student can also change theparameters (e.g., probability of blocking, traffic intensity, and number of users) and see theireffect on the simulated system. However, no assessment data are reported on the effectivenessof the simulations and virtual experiments.Biomedical engineeringIn [51], besides traditional teaching and learning methods, and laboratory activities, the authorpresents case-based and problem-based learning using browser-readable interactive 2D and 3Dobjects, animation, videos, 3D objects of real
predictive analytics may one day supplant laboratory testing, defect diagnosis andrecognition.The aim of this paper is not to provide a review of the rapidly expanding technology that iscasting simulation. Instead, this paper focuses on the use of simulation for aiding an introductionto metal casting course via distance learning. The purpose of this paper is to identify an approachutilizing simulations activities to teach a Metal Casting course via distance learning.Objectives 1. To design distance learning using a simulation tool to introduce practical casting activities for an engineering course. 2. To compare metal casting students’ outcome pre and post the use of the simulation tool.MethodologyThe goal was to develop and test a
faculty members- Dr. Duttagupta, Dr. Burkett, Dr. Parke, and Dr.Erickson. The laboratory is divided into three sub-facilities: Fabrication, Characterization, andTest, and hosts five graduate courses and eight undergraduate courses. The resources are alsoutilized by the 2-year Sematech-supported Semiconductor Technology program in the College ofApplied Technology at BSU.The fabrication facility is a Class 1000 cleanroom for teaching and research in semiconductorwafer processing and microstructure fabrication. The lab supports wafer cleaning, etching,lithography, and sputtering. Metrology capability is supported in the area of ellipsometry,resistivity measurement, and optical and scanning electron microscopy. The current equipmentincludes an SCP
method for teaching freeconvection,10 and the use of an integrated experimental/analytical/numerical approach that bringsthe excitement of discovery to the classroom.11 Supplemental heat transfer experiments for usein the laboratory or classroom have also been presented, including rather novel experiments suchas the drying of a towel12 and the cooking of French fry-shaped potatoes.13 Suggestions for theintegration of heat transfer material into the laboratory and classroom have been described byPenney and Clausen,14-20 who presented a number of simple hands on heat transfer experimentsthat can be constructed from materials present in most engineering departments. This cross-course integration of course material has been shown to be a very
Manufacturing CourseAbstractHands-on learning is the core of Engineering Technology programs, and a high number of thecourses is taught with the laboratory sections. This paper presents the service learning basedenhancements made in one of the Engineering Technology courses. Course students learnmanufacturing the complex machined workpieces using the G-code simulators. Teaching theapplied milling and turning practices is the main deliverable of the course with a required termproject which is focused to service learning concept. Student teams formed in the middle of thesemester design, simulate, and machine a functional service learning product using thedepartmental computers, simulators, and CNC machines for their project. The feedback providedby the
, gaining significant traction in the K-12 system is standards-based grading. With standards-based grading, grading is based upon “measuring students’proficiency on well-defined course objectives.” [1] Instead of arbitrary grading scales, studentsare assessed multiple times regarding their performance on course outcomes. By doing this,there is an increase in student engagement and a more thorough comprehension of coursematerials. [2] Standards Based grading focuses on the specific, relevant skills a student shouldlearn and helps instructors to assess how well students are learning and tailor their teaching tomeet areas of concern. [3] By measuring these goals, students continue to learn. By usingrubrics to articulate these goals, students can use
., “Modernization of a Mechanical Engineering Laboratory using Data Acquisition with LABVIEW”, ASEE 2003 Session 22663 McConnaughay,K., Welsford,I., Stabenau,E., “Inquiry, Investigation, and Integration in Undergraduate Science Curricula”, Council on Undergraduate Research Quartley, pp14-18, September 19994 Mantei,E.J., “Using Internet Class Notes and Power Point in the Physical Geology Lecture – Comparing the Success of Computer Technology with Traditional Teaching Techniques”, Journal of College Science teaching, pp301-305, April 20005 Regan,M., Sheppard,S., “Interactive Multimedia Courseware and Hands-On Learning Experience: An Assessment Study”, Journal of Engineering Education, pp123-131, Apr 19966 Riggs,B., Poli,C., Woolf,B