studentpopulations. The first module, designed for freshman students, provides introductory-levelcontent on ethics. In contrast, the second module, targeted at senior students enrolled in thecapstone design course, offers more comprehensive coverage of ethics topics.Introductory ethics moduleSimilar to work reported by Clancy et al [11], we have opted to integrate an ethics introductorymodule into the Electrical Engineering Projects and Tools course. This one-credit laboratorycourse is typically taken by electrical engineering students in their first semester. The courseaims to introduce students to various aspects of electrical engineering, including laboratoryequipment and basic electrical circuits, through fifteen lab sessions held for over two hours
department-wide changes in curriculum with emphasis on project- and lab-based instruction and learning. His research interests are in the areas of engineering education, semiconductor device characterization, design and simulation, signal integrity and THz sensors. He is a member of IEEE and ASEE. c American Society for Engineering Education, 2017 Session W1A Work-in-Progress - An Introductory Course in Electrical Engineering: Lessons Learned and Continuing Challenges Melinda Holtzman and Branimir Pejcinovic
Intro. to Digital Logic Spring, Year 1 EE 188 & Lab Electrical Engr. I (Circuits) Fall, Year 2 EE 215 & Lab Microprocessors Fall, Year 2 EE 280 & Lab Intro. to Electronics Spring, Year 2 EE 348 & Lab Fund. of Signals and Systems Spring, Year 2 EE 310 & Lab Fund. of Computer Engineering Fall, Year 3 EE 380 & Lab Fund. of Electronic Circuits Fall, Year 3 EE 364 & Lab Fund. of Electromagnetics Spring, Year 3 Comprehensive After instruction Supplemental Projects and Labs
AC 2012-3617: DIFFERENCES IN EDUCATIONAL GOALS WITHIN THEFIELD OF ELECTRICAL ENGINEERINGDiana G. de la Rosa-Pohl, University of Houston Diana de la Rosa-Pohl has been a lecturer in the Cullen College of Engineering at the University of Hous- ton since 2003. She has worked with the PROMES program to develop project-based learning courses for the first-year curriculum. Currently, she is developing and evaluating project-based multidisciplinary courses for the engineering honors program. Page 25.468.1 c American Society for Engineering Education, 2012 DIFFERENCES IN EDUCATIONAL
AC 2009-252: INCREASING FEMALE ENGINEERING-DEGREE ATTAINMENTIN ELECTRICAL AND MECHANICAL ENGINEERING DEPARTMENTSElizabeth Cady, National Academy of EngineeringNorman Fortenberry, National Academy of EngineeringCatherine Didion, National Academy of EngineeringKaren Peterman, Goodman Research Group, Inc. Page 14.729.1© American Society for Engineering Education, 2009 Increasing Female Engineering Degree Attainment in Electrical and Mechanical Engineering DepartmentsAbstractThe Engineering Equity Extension Service (EEES) project aims to increase the number ofwomen who graduate with baccalaureate degrees in engineering, with a specific focus on the
Associate Professor in IUT and IUST from 1989 - 2002. He has done several projects in the area of electrical drives, power electronics, and hybrid electric vehicles. He served as the Head of School of Railway Engineering at IUST from 2000 - 2002. He served as a consultant at Northern Indiana Commuter Transportation District from 1991 - 1993 and at Isfahan and Tehran Regional Metro Compa- nies from 1993 - 2002. He has directed several projects in the area of electric vehicles, hybrid electric vehicles. He also was a research associate in the Advanced Vehicle Systems Research Program in the department of Electrical Engineering at Texas A&M University from 2002 to 2004. Furthermore, he suc- cessfully implemented the
engineering curriculum complete the program2. At ouruniversity, we typically lose 40% of our electrical and computer engineering students during thefirst two years of their undergraduate engineering program. The attrition rate continues to trenddownward during the 3rd year of their engineering program. Figure 1 shows a snapshot of thepersistence and graduate rates of the ECE undergraduate program at our university for the 2014-2015 academic year. Graduation rates reflect the number of students who graduated each year asa percentage of the original entering cohort; and the persistence rates reflect the number ofstudents who graduated and/or enrolled each semester as a percentage of the original enteringcohort. Even though Figure 1 captures the
Approach to Empathetic Electrical Engineering CoursesAbstractBackgroundThe ability to empathize provides the basis to understand others, an often-overlookedprofessional skill in engineering curriculums. Studies have shown that engineering students haveless empathy after completing their degree than when they had entered. Having low amounts ofempathy in engineers can result in less concern for public welfare and social considerationsduring the engineering design process.PurposeIn this work, we consider when engineering students are entering an empathetic cycle. Moststudies develop a model based on an educators’ perspective and how empathy is a teachable andlearnable skill. This study examines how engineering students can
, Page 7.408.7changes to the National Electrical Code Ò, and lightning protection. Proceedings of the 2002 American Society for Engineering Education Annual Conference & Exposition CopyrightÓ 2002, American Society for Engineering EducationEE and EET students have taken these last two courses, EE-353 and EE-355, for credit. Beforeentering the course sequence, the students are evaluated to determine if they have taken coursesthat cover the prerequisite material. Since these courses do not fit directly into either curriculum,they were taken as electives. In the case of the EET student, the sequence was taken as anindependent study (MSOE course designation ET 499). While there was commonalit y in thematerial presented
troubleshooting of electric circuits,” en, Physical Review Physics Education Research, vol. 13, no. 2, p. 020 116, Sep. 2017, ISSN: 2469-9896. DOI: 10.1103/PhysRevPhysEducRes.13.020116.[18] Analog discovery 2. [Online]. Available: https://digilent.com/shop/analog- discovery - 2 - 100ms - s - usb - oscilloscope - logic - analyzer - and - variable-power-supply/.[19] H. C. Powell, R. W. Williams, M. Brandt-Pearce, and R. Weikle, “Restructuring an electrical and computer engineering curriculum: A vertically integrated laboratory/lecture approach,” en, Gainesville, Florida: ASEE, Apr. 2015. [Online]. Available: http : / / se . asee . org/proceedings/ASEE2015/papers2015/53.pdf.[20] K. Anders Ericsson and Herbert A. Simon, Protocol
2006-491: THE IMPORTANCE OF ELECTRICAL SAFETY TRAINING INUNDERGRADUATE POWER ENGINEERING EDUCATIONRavel Ammerman, Colorado School of Mines Ravel F. Ammerman (Member IEEE) received his BS in Engineering in 1981 at Colorado School of Mines (CSM), Golden, Colorado. He also received his MS in Electrical Engineering (Power Systems and Control) at the University of Colorado in 1987. He has over 24 years combined teaching and industrial experience. Mr. Ammerman has coauthored and published several technical articles on Engineering Education, Curriculum Development, and Computer Applications related to Power Systems Engineering. Mr. Ammerman is an accomplished teacher having received the CSM
circuitsconcepts among first year engineering students5, and to evaluate an instructional approachfocused on electric potential and electric potential difference.6 O`Dwyer used DIRECT to assessunderstanding of electric circuits among first-year, Level 7 (Bachelor’s Degree level in Ireland),engineering students, primarily to gauge the diversity of abilities among incoming students atDublin Institute of Technology. 5 However, this paper only presented preliminary results(percentage of correct responses) for 83 students and recognized the usefulness DIRECT.Other studies have borrowed elements from DIRECT to develop their own assessmentinstruments.7,8 For example, Smaill et al. developed their own assessment instrument and used itin conjunction with
electronic-based motor drive allows us to achievethis goal under various sailing conditions.Fundamentals to Comprehensive Curriculum DevelopmentTraditional electrical engineering technology (EET) or electrical and computer engineeringtechnology (ECET) programs add two to four courses to provide the skill needed for e-mobilityand renewable energy areas [4]. If the focus is e-mobility, a course in power electronics, electricdrives, and electric powertrain would be ideal. If three courses are not possible, a beginner’scourse in power electronics and a comprehensive electric powertrain course would be sufficient.If renewable energy is an option in the program, an electrical power system course and arenewable energy integration course would suffice. In
2006-1653: IDENTIFYING AND INVESTIGATING DIFFICULT CONCEPTS INENGINEERING MECHANICS AND ELECTRIC CIRCUITSRuth Streveler, Colorado School of Mines RUTH A. STREVELER is the Director of the Center for Engineering Education at the Colorado School of Mines and Research Associate Professor in Academic Affairs. Dr. Streveler holds a Ph.D. in Educational Psychology from the University of Hawaii at Manoa, Master of Science in Zoology from the Ohio State University, and a Bachelor of Arts in Biology from Indiana University at Bloomington. She is co-principle investigator of three NSF-sponsored projects: Developing an Outcomes Assessment Instrument for Identifying Engineering Student
mental models and tools by presenting and tackling moreill-defined real-world problems so that there is a natural transference of learning and practicetoward the students. This work provides an opportunity for educators, curriculum designers, andresearchers in this field to innovate instructional design and create methodologies to interrogate,pinpoint, and remedy potential misconceptions, which may be largely influenced by students beingunable to have a tangible outlet for which they can apply their learning of abstract and intangibleengineering concepts.Keywords: electrical engineering, electric circuit concepts, misconceptions, real-world electricalphenomena 1IntroductionOne of the goals of
R.A.Shaffer. Re-inventing the electrical machines curriculum. IEEE Page 15.1351.12Transactions on Education, 41(2):92–100, May 1998.5. Thomas W. Gedra. Computer-aided instrumentation in OSU’s machines lab. In Proceedings ofthe Frontiers of Power Conference, pages VIII.1–VIII.5, Oklahoma State University, Stillwater, OK,October 1997.6. Thomas W. Gedra. Virtual instrumentation in an undergraduate electrical machines lab. InProceedings of the Midwest Section ASEE Conference, Columbia, MO, April 19977. G. Faraco and L. Gabriele, Using LabVIEW for applying mathematical models in representingphenomena, Computers & Education, Volume 49, Issue 3, November
Key Ingredients of Modern Electrical and Computer Engineering Undergraduate Programs M. R. Parker and M. S. Alam Department of Electrical and Computer Engineering, University of South Alabama Mobile, AL 36688, USA1 (Session number: 1532) AbstractIn this paper, we discuss the evolution of modern North American Electrical and ComputerEngineering curricula designed to, among other things, satisfy guidelines consistent with ABETaccreditation as well as those required by the increasingly common constraints of StateArticulation. In the process of curriculum development, it is
Interface Module: Use of mathematical tools, such as, Matlab, is commonin engineering education. Although a full integration of Matlab core into IITS has been the goalof the project, currently, student’s answers for exercise problems are verified using a java-basedsmall linear algebra module. 3. Development of Interactive Tutoring System for ECE Circuits CoursesUsing the IITS shell, an interactive tutoring system is being developed for two electric circuitscourses for the Electrical Engineering curriculum. Several modules for various components ofthe electric circuits courses have been developed and deployed; further development is inprogress. The following is an index of various topics covered so far: 3.1 Course Topics EE161: Electrical
had 136 students enrolled. Allstudents attended the same lecture hall in each quarter. There were two students in Fall 2018 andthree students in Winter 2019 quarters who retook the course. This course enrolls sophomores,juniors, and seniors. This is largely a result of the varying requirements of different majorswithin the Electrical and Computer Engineering Department at UC San Diego. For some majors,there are prerequisites to this course. For majors that do not have a prerequisite, students can takethe course early in their curriculum. Table 1 shows the breakdown of students by gender andyear in the program.Table 1. The number of students and their college year. Quarter Total Female Male 1st year 2nd year
investigations such as designing and testing of propulsion systems including design and development of pilot testing facility, mechanical instrumentation, and industrial applications of aircraft engines. Also, in the past 10 years she gained experience in teaching ME and ET courses in both quality control and quality assurance areas as well as in thermal-fluid, energy conversion and mechanical areas from various levels of instruction and addressed to a broad spectrum of students, from freshmen to seniors, from high school graduates to adult learners. She also has extended experience in curriculum development. Dr Husanu developed laboratory activities for Measurement and Instrumentation course as well as for quality control
manufacturing industry. He has also worked on novel biomechanical research projects with the Pennsylvania State University College of Medicine. Janose also taught engineering courses at Pennsylvania State University. His research, and teaching interest include innovative product development, additive manufacturing, and project management.Joseph Ekong Dr. Joseph Ekong is an Assistant Professor in the Department of Industrial Engineering and Engineering Management at Western New England University. Previously, he served on the faculty at Ohio Northern University. Dr. Ekong received his Bachelor of Engineering degree in Electrical and Electronics Engineering from the University of Uyo, Nigeria in 2005 and Master of Science degree in
and their exposure to theassociated software tools. Eleven of 15 students said they were more engaged during the classsessions with active learning versus lecture. This paper will describe the projects used andvarious affective assessment results. The paper will also describe plans to formally connect thiscourse to student makerspace use and senior design projects to further integrate optics andphotonics into the electrical engineering curriculum.1. Introduction and BackgroundProducts that incorporate photonics technology include optical fibers and display technology,and these technologies are ubiquitous in today’s society. The significant increases in research,development, and job opportunities involving optics and photonics are raising
topics related to design and professionalism,including ethics, are discussed. Of course, in addition to the project work the student engineersengage in technical learning through participating in one credit competencies which ideallyconnect to and support the project. There are required core competencies in mechanicalengineering (e.g. mechanics of materials, dynamic systems, etc.), electrical engineering (e.g. ACcircuits, electronics, etc.), and engineering broadly (engineering economics, statistics, etc.) aswell as technical electives. For more details about the curriculum please see the work by Ulseth,et al [24].This curriculum connects to this paper’s focus of learning ethics with fiction through a commonread for the seminar class, which is
patriotism, international vision, rule of law, and ecology and engineeringethics.[14] It can be seen that there have been many studies on project constructionand talent cultivation of engineering education in China, but there is still a lack ofempirical research on the whole engineering education.3 Methodsand analysisSystem reviews, used to promote development in the field of engineering education,have strong potential to become model and seminal publications. We followed stepsin conducting a systematic review by Borrego et al. (2014), which is: (1)Deciding todo a systematic review; (2)Identifying scope and research questions; (3)Defininginclusion criteria; (4)Finding and cataloging sources; (5) Critique and Appraisal; (6)Synthesis.[15] Justin(2018
AC 2011-2823: ENSURING CURRICULUM INTEGRITY FOR ENGINEER-ING TECHNOLOGYMike Eastman, Rochester Institute of Technology (CAST) Mike Eastman is Department Chair and Professor of Electrical, Computer, and Telecommunications En- gineering Technology at Rochester Institute of Technology. Mr. Eastman spent six years as a hardware design engineer with Intel corporation before entering academia to specialize in embedded systems de- sign. Most recently he has been involved in curriculum development and academic calendar conversion at RIT. He has a BS in Electrical Engineering Technology and a MS in Computer Science from RIT.H. Fred Walker, Rochester Institute of Technology (CAST) H. Fred Walker is Dean of the College of
Society for Engineering Education, 2018 Redesigned Application Oriented Integral Calculus CurriculumAbstractThis paper presents the development of an application based curriculum for an integral calculuscourse, a project funded by the KEEN Foundation. Textbook examples are frequentlydisconnected from students’ immediate environment or use past data of little interest. In addition,information given on the subject is at most sketchy and the practical purpose of solving theseexamples is not clear. This lack of vivid applications in calculus courses motivated us to developcontent that can be used by instructors to enhance students’ learning experience by engagingthem directly in solving problems and applying attained skills to real life
the four-year institution in the state offered a degree inthese fields. With an increasing demand of trained professionals in this field, the Industrial andEngineering Technology (IET) Department at Southeast Missouri State University developed theproposed curriculum.Some of the other programs that were reviewed were from Vancouver Island University9, SenecaCollege of Applied Arts and Technology10, Boston University11, Cincinnati State Technical andCommunity College12, and the study presented by Crabtree et al.13Curriculum development processProject DescriptionThis project had three primary objectives in developing the curriculum for green energytechnology education:1. Develop a BS Technology degree in Sustainable Energy Systems Management at
),Electrical and Computer (ECE), and Chemical Engineering (ChE) are participating in the project.The purpose of this paper is to introduce the initiative and describe two projects: • A weather station designed and built by a Clinic team of ECE, Mechanical Engineering, and CEE majors; and • Soil sampling and measurement procedures developed by a team of CEE majors.INTRODUCTIONField methods are an important part of engineering often ignored in the undergraduatecurriculum. Using funds from the National Science Foundation’s Course, Curriculum, andLaboratory Improvement (CCLI) program, plus matching funds, the College of Engineering atRowan University is incorporating field methods, both sampling and measurement, across itsengineering
2006-1115: RESEARCH OF PROJECT LEAD THE WAY (PLTW) CURRICULA,PEDAGOGY, AND PROFESSIONAL DEVELOPMENT: ACTIVITIESREGARDING INCREASING ENGINEERING AND TECHNOLOGICALLITERACY OF K-12 STUDENTS IN THE PLTW NETWORKPam Newberry, Project Lead The Way Pam B. Newberry is the Director of Curriculum for Project Lead The Way®. PLTW is a non-profit organization that provides pre-engineering curricula for schools in 45 states and the District of Columbia with approximately 1300 schools and 26 affiliated universities and colleges. Prior to joining PLTW in July 2002, she served as the Associate Director for the International Technology Education Association’s Technology for All Americans Project for five years. She taught
Energy Systems. In recent years, she has worked with colleagues to apply these technologies to Biomass research, Solar Cells efficiency capture research, and Renewable Energy Curriculum developments. Dr. Ososanya teaches a myriad of Electrical Engineering courses and labs, including Electric Circuits, Digital Systems courses, VLSI, VHDL, Solar Energy (PV) and Solar Thermal systems, Mechatronics, and Electrical Engineering Senior Project design courses.Miguel E. Uzcategui, The Goldman Sachs Group, Inc Miguel Uzcategui is a technology analyst at The Goldman Sachs Group, Inc specializing in cloud engi- neering. He received his BS in Electrical Engineering from the University of the District of Columbia in May 2014 and