prompts in this first implementation ofLtW in a laboratory setting: that students might not be ready to “put in their own words”concepts and phenomena they have yet to contemplate outside of the standard language anddiscipline of use in their electrical courses to date.As part of the author’s university quality enhancement programs, and the Learning throughWriting program specifically, the author is seeking the advice and assistance of the programleaders to review the results of this first implementation and consider extensions orimprovements based on the observed outcomes and student responses.Bibliography 1. Baren, R., 1993. “Teaching Writing in Required Undergraduate Engineering Courses: A Materials Course Example,” Journal of
Page 23.1357.7 client is built into all versions of Windows. To connect to virtual computer, student needs to enter the IP address of the remote computer, and it asks you for the login and password. Total machining process simulation that includes selecting the workpiece, zeroing the workpiece, select and measure tools, select the right operation mode for the machine and clearing all the alarms can be performed virtually using Swansoft software. One of the difficulties teaching in ET-mechanical laboratory is that students may not be able to see what the instructor showing on the machine control panel especially when the class size is big. This problem is overcome by using simulation package of Swansoft CNC (SSCNC), which
Science, 75, 451-456.13. Ma, J. & Nickerson, J.V. (2006). Hands-on, simulated and remote Laboratories: A comparative literature review. ACM Computing Surveys, 38(3), Article No. 7, 1-24.14. Sarasin, L. C. (1999). Learning style perspectives: Impact in the classroom. Madison, WI: Atwood Publishing.15. Leopold, C., Gorska, R., &. Sorby, S. (2001). International experiences in developing the spatial visualization abilities of engineering students. Journal for Geometry and Graphics, 5(1), 81– 91.16. McLaren, S.V. (2008). Exploring perceptions and attitudes towards teaching and learning manual technical drawing in a digital age. International Journal of Technology and Design, 18(2), 167-188.17. Philpot, T.A., Hubing
necessary time to teach more than just the high cycle fatigue that is coverednow. With a large portion of mechanical engineers at RIT concentrating their coursework inspecialized areas such as aerospace and biomedical engineering, the need to describe thebehavior of complex alloys that may be subjected to higher stresses becomes even greater. Forthis work, we have implemented a fatigue lab activity as one of the four case studies in thecourse.Laboratory DesignDuring the spring of 2012, a laboratory activity involving both LCF and HCF fatigue conceptswas created to meet a set of design constraints and allow easy incorporation of this activity intoan existing course. To clearly illustrate the impact of low cycle fatigue within the timeconstraints of
with a joint appointment in the School of Computing, Informatics, and Decision Systems Engineering in the Ira A. Schools of Engineering and the Division of Educational Leadership and Innovation in the Mary Lou Fulton Teacher’s College.Dr. Tim Frank, South Mountain Community College Page 23.1146.1 c American Society for Engineering Education, 2013 Teaching Linear Circuit Analysis Techniques with ComputersAbstractWe describe recent progress in the development of a step-based computer-based tutoring systemto aid in the teaching of introductory linear circuit analysis courses, and
Paper ID #7397Cooperative Teaching in a Distance Education EnvironmentDr. Chi N. Thai, University of Georgia Dr. C. N. Thai is an associate professor in the College of Engineering at the University of Georgia. He teaches courses in Robotics, Machine Vision and Systems Simulation. His research areas are in theater robotics and spectral imaging for plant health and quality characterization of agricultural products.Prof. Yan-Fu Kuo, National Taiwan UniversityDr. Ping-Lang Yen, National Taiwan University Dr. Ping-Lang Yen was born in 1966. He received his B.S. degree from the Dept. of Power Mechanical Engineering at National
and earned her MS and Ph.D. degrees in Electrical Engineering from Duke University. Her research interests are focused on engineering education, curriculum and laboratory development, and applications of statistical signal processing.Dr. Wayne T. Padgett, Rose-Hulman Institute of TechnologyProf. Kathleen E. Wage, George Mason UniversityProf. John R. Buck, University of Massachusetts, Dartmouth Page 23.402.1 c American Society for Engineering Education, 2013Developing Interactive Teaching Strategies for Electrical Engineering FacultyOverviewThe goal of this project is to develop a model
Paper ID #6145Lessons Learned from Teaching with an Ethics ToolkitDr. Martin S. High, Oklahoma State University Dr. Marty High is an associate professor of Chemical Engineering at Oklahoma State University. His academic interests include teaching in all areas and at all levels of chemical engineering with a focus on instruction in thermodynamics and mass transfer. His research interests are in the areas of mass transfer in polymeric systems, corrosion modeling, equation of state development and refinery catalysis. Marty also writes in the area of sustainability and on the intersection of law, science and society. He
) Robert J. Bowman has held faculty positions at the University of Utah, the University of Vermont, the University of Rochester, and Rochester Institute of Technology and has consulted or has held engineer- ing positions with a number of companies. He was Director of Analog and Mixed-Signal Engineering at LSI Logic until 2001 and then became Department Head of Electrical Engineering at RIT. Dr. Bow- man is now Professor of Electrical Engineering and Lab Director of the RIT Analog Devices Integrated Microsystems Laboratory. His areas of interest include analog integrated circuit design and technology, semiconductor device physics, and integrated transducers. His current research work is concentrated on smart MEMs sensors
. Efforts to Page 23.1076.2introduce adaptive filters to undergraduate students through practical applications, and to createbasic and advanced laboratory exercises and projects suitable for undergraduate students hasbeen reported in [3 - 4].This paper details our effort to incorporate the teaching of software/hardware design toolsthrough some of the practical applications of adaptive filters. The main goals of such effort is: i)to prepare our undergraduate senior students for professional careers in industry or graduatestudies; ii) familiarize our students with state-of-the-art software/hardware design tools,Intellectual property (IP) component and
on the sensory perception of the sounds of music. Here weexplain the content of each project and its place in the sequence of rigorous measurements ofstandard signals; provide examples of lab data, and summarize the feedback from students andfrom the lab instructors in a large class.IntroductionAmong the challenges of teaching introductory courses in Electrical Engineering (EE) to non-EEengineering majors is the creation of laboratory projects that provide students an insightfulhands-on experience, which would ü Closely relate to theory and applications ü Elucidate abstract EE concepts, and ü Develop fundamental skills that can be readily applied to projects and environments that non-EE majors would encounter.The constraints
control systemsinstructional labs. With Arduino-based data acquisition, a low-cost sensor, and inexpensivehardware manufacturing, the build cost for our plant totals to approximately $150. This serves as Page 23.65.12an affordable and accessible solution to engineering departments seeking to outfit controlsystems or mechatronics laboratory classrooms with multiple laboratory setups for significantlyincreased opportunity for hands-on learning experience.References[1] C. Richard, A. M. Okamura, and M. R. Cutkosky, “Getting a feel for dynamics: Using haptic interface kits for teaching dynamics and controls,” in Proceedings of 1997 ASME IMECE 6th
recently web-based discussionforums have been added allowing students to more easily communicate with other students in thecourse.On-site lab offeringsLaboratories play a major role in our electrical engineering curriculum. All but one of our EEcourses (Electric and Magnetic Fields) have an integrated laboratory component. Faculty teachboth the lecture and the laboratory portions of the class (no teaching assistants). We feel thathands-on application of theory is a strong component of good learning. Most of our courseshave significant design projects. In our entry level courses, laboratory experiments are used toverify theoretical concepts and to teach the students how to use basic lab equipment. Facultytake an active role in the lab and are
, he was a research/teaching assistant in the Faculty of Engineering, Benha University. Heis currently a research assistant in the Electrical and Computer Engineering Department, College of En-gineering and Computing, Florida International University, Miami, Florida, USA. His current researchinterests are Smart Grids, Renewable energy sources, Smart Operation and Energy Management of PowerSystems. Energy Systems Research Laboratory, Electrical and Computer Engineering Department, Col-lege of Electrical and Computer Engineering, Florida. Page 23.454.2 c American Society for Engineering Education, 2013 Educational
software can provide students anexcellent visual learning experience in some cases. Another approach is to produce slow-motionvideo recordings of actual high speed physical events. However, professional-level high speedvideo equipment can cost thousands of dollars. Due to budgetary constraints, expensive high-speed video equipment is not affordable for many academic programs. This paper describes useof an affordable "off-the-shelf" camera that can record video at up to 1000 frames per second(fps) to assist in the teaching of a mechanical vibrations course and a fluid mechanics course in amechanical engineering curriculum. Examples used in the vibrations and fluid mechanicsclasses are overviewed, and lessons learned are discussed. In some cases
StateCurriculum), and CTE (Tennessee State Curriculum) standards for the 9th and 10th gradesincluding the embedded student performance standards for engineering and technology.Tennessee Tech University engineering and education faculty members co-teach the contentmodules in order to solidify the content knowledge sets while they increase the comprehensionand engagement of the teachers. A number of the state-of-the-art teaching with technologyconcepts are an essential part of this project as such remotely accessible laboratory, computer-aided design, computer-aided simulation, and AM [4]. DTF teacher-participants learn andpractice the infrastructure of current remotely accessible rapid prototyping laboratory given inFigure 2. They gain to adapt and
Paper ID #6528Analog-Circuit-Based Activities to Improve Introductory Continuous-TimeSignals and Systems CoursesDr. Mario Simoni, Rose-Hulman Institute of Technology Dr. Simoni is an Associate Professor of Electrical and Computer Engineering at Rose-Hulman Institute of Technology in Terre Haute, IN.Prof. Maurice F. Aburdene, Bucknell University Maurice Felix Aburdene is a Professor of Electrical Engineering and Professor of Computer Science at Bucknell University. His teaching and research interests include control systems, parallel algorithms, simulation of dynamic systems, and signal processing.Ms. Farrah Fayyaz, Purdue
Paper ID #6793Innovations in Remote Laboratories & Simulation Software for Online andOn-Site Engineering StudentsDr. Jodi Reeves, National University Dr. Jodi Reeves is an associate professor in the Department of Applied Engineering at National University in San Diego, CA. She teaches courses in design engineering, engineering management, electric circuits, and other applied engineering courses. She is also the lead faculty for the Data Analytics program in the School of Engineering, Technology, and Media at National University. Prior to academia, she worked for almost ten years as a quality control manager
, and misalignment of machine tool elements.Geometric errors are also affected by the thermal state of the machine tool structure. Henceprocess and structural factors affecting part accuracy in machining processes are quitecomplicated. CNC machine tools only minimizes a small portion of these errors since CNC oftendoes not utilize sensor data to compensate for geometric-thermal errors and errors generated bythe cutting process. Therefore, we must provide our students, through our curriculum, with anadequate level of expertise through new programs, courses and support laboratories.This paper is focused on description of new laboratory modules, teaching materials, practicalexperiments and projects developed as an integrated educational
Metrology CoursesAbstractMeasurement scientists work in calibration laboratories throughout the world. Yet, there are fewuniversity level courses available that cover the critical topics needed for performing andanalyzing precision measurements – at the desired level. Many continuing education courses ofthis nature are taught by National Metrology Institutes (NMIs) and original equipmentmanufacturers (OEMs) of precision measuring equipment and measurement standards. Whatoften happens in the measurement community is that subject matter experts and scientists whobest know about measurements are asked to teach courses and tutorials, but most do not have abackground in educational models or adult education principles.Over the past 3 years, the National
study is to determine whether these skills have been carried over into the twosemester capstone design course. If the earlier course is effective in teaching experimentaldesign and laboratory techniques, this should translate to more sophisticated experimental designand execution in the capstone design course. To determine whether these concepts have beenretained in the capstone design course, design reports were examined to note the instances ofspecific Measurements and Analysis topics in the design projects. Reports were examined forstudent populations that had taken the revised course and were compared to reports for studentswho had taken the original course with two different instructors. Both the number of topicsaddressed and the number of
- plementing undergraduate laboratory and lecture courses that address the evolving needs of biomedical engineers, and managing the ABET assessment program for the Weldon School of Biomedical Engineer- ing.Dr. Marcia Pool, Purdue University, West Lafayette Dr. Marcia A. Pool is an Instructional Laboratory Coordinator in the Weldon School of Biomedical En- gineering at Purdue University. She is responsible for overseeing and assessing junior level laboratories, bioinstrumentation and biotransport, and is involved with teaching and mentoring students in the Senior Design Capstone course. Recently, she has worked with colleagues to plan and implement a problem- based learning approach to the biotransport laboratory to improve
was to introduce traffic safetyusing the ArcGIS software. An iterative process using several implementation cycles helped theinstructor to refine the structure of instructional tasks based on student-centered feedback asdescribed in the following subsections. The iterative refining process covered four semesters,Fall 2009, Spring 2010, Fall 2010 and Spring 2011.Nature of Instructional ActivitiesThe nature of instructional activity in the GIS laboratory changed throughout the fourimplementation cycles. During first two semesters the GIS laboratory was a stand-aloneinstructional activity placed at the beginning of the course with minimal classroom support fromthe teaching assistants. The assumption was that students will fully use the GIS
Paper ID #6341A Laboratory Based, Problem Solving Pedagogy Prepares Engineering Tech-nology Graduates to Succeed on the JobDr. John Marshall, University of Southern Maine John Marshall received his Ph.D. from Texas A&M University and is the departmental Internship Co- ordinator at the University of Southern Maine. His areas of specialization include Power and Energy Processing, Applied Process Control Engineering, Applied Automation Engineering, Fluid Power, and Facility Planning. Page 23.57.1
Paper ID #7273Laboratory Experiment in Engineering Materials for Upper-Level Under-graduate and Graduate StudentsDr. David R Veazie P.E., Southern Polytechnic State University Dr. Veazie received his B.S. in Mechanical Engineering from Southern University in 1986, and his M.S. and Ph.D. in Mechanical Engineering from Georgia Tech in 1987 and 1993, respectively. He worked for AT&T Bell Laboratories in New Jersey as a Member of the Technical Staff and was a National Research Council (NRC) Postdoctoral Fellow at the NASA Langley Research Center. In 1994, he joined Clark Atlanta University’s Department of Engineering, and
, and Circuit Analysis.Prof. Todd D. Morton, Western Washington University Todd Morton has been teaching the upper level embedded systems and senior project courses for Western Washington University’s Electronics Engineering Technology(EET) program for 25 years. He has been the EET program coordinator since 2005 and also served as department chair from 2008-2012. He is the author of the text ’Embedded Microcontrollers’, which covers assembly and C programming in small real-time embedded systems and has worked as a design engineer at Physio Control Corporation and at NASA’s Jet Propulsion Laboratory as an ASEE-NASA Summer Faculty Fellow. He has a BSEE and MSEE from the University of Washington
Page 23.1259.1 c American Society for Engineering Education, 2013 Traditional, Blended, and On-Line Teaching of Electrical Machinery CourseAbstractWith a increasing emphasis on student learning outcomes and assessment, educators constantlyseek ways to effectively integrate theory and hands-on practices in inventive course designmethodologies. Critics of engineering education argue that educational programs focus too muchon the transmittal of information through static lecture-discussion formats and routine use ofoutdated laboratory exercises. On the other hand, that active learning, learning that involveshands-on experience, significantly improves student comprehension and
physicalresource limitations and time constraints. This paper describes the combination of a tutorial forbatch distillation simulation with tools to engage students in an inductive learning process (theprocess of observation and interpretation based on factual evidence leading to generalizedconclusions) and an optional experiential exercise incorporating experimental design.A part of the aspenOne family of simulation software developed by Aspen Technology, AspenBatch Distillation3 may be used to teach the relationships of key batch distillation variables uponsystem performance. Using the approach described here, a student is guided through a detailedtutorial to model a laboratory batch distillation column, and then uses the results to predict thecolumn’s
class or handling check-out procedures for students who do the experiment at home, andorganizing staff or TA help during the experiment.This model was tried as part of an NSF CCLI grant at a large ECE program across 15 differentcourses, 37 instructors, and 2700 students1-3. The corresponding experiments include ones oncircuits, signals and systems, electromagnetic, and controls. Experience gained during this grantperiod helped to develop implementation strategies and best practices to address the facultyconcerns and logistics challenges4. To be successful, the model requires an established set ofexperimental modules using common platforms, laboratory staff support, teaching assistantsupport, a sufficient number of experimental set-ups for each
Paper ID #7467Serious Games to Improve Student Learning in Engineering ClassesMr. Pramod Rajan, Laboratory for Innovative Technology & Engineering Education (LITEE) Pramod Rajan is in the doctoral program in the Department of Mechanical Engineering at Auburn Univer- sity. He is a graduate research and teaching assistant. Rajan is currently working on developing serious games to improve student learning in engineering classes.Dr. P.K. Raju, Auburn University Dr. Raju is the Thomas Walter Distinguished professor of Mechanical Engineering at Auburn University. He is the co-founder and director of the NSF-funded