and Associate Provost in Hawaii; a College Director in Abu Dhabi, UAE; an Associate Professor and Assistant Provost in northern California; and an Assistant Professor and Director of Faculty Development in Florida. He has authored a textbook, an an- thology and published over 130 academic articles as well as offered hundreds of academic presentations. He has earned a B.S. in Oceanography from Florida Institute of Technology; an M.S. in Environmen- tal Engineering Sciences and a Ph.D. in Science Education from the University of Florida. Dr. Hargis’ research agenda focuses on how people learn while integrating appropriate, relevant and meaningful in- structional technologies. c American
Paper ID #16014An Expanded Study to Assess the Effect of Online Homework on StudentLearning in a First Circuits CourseDr. Katie Evans, Louisiana Tech University Dr. Katie Evans is the Walter Koss Endowed Associate Professor of Mathematics and Statistics and the Academic Director of Mathematics and Statistics and Industrial Engineering programs. She is the Di- rector of the Integrated STEM Education Research Center (ISERC) and the Director of Louisiana Tech’s Office for Women in Science and Engineering (OWISE). She earned her Ph.D. in Mathematics and M.S. in Mathematics at Virginia Tech, Blacksburg, VA. Her research
integrated within a leading mathematical software system. This paper describes how the new dynamicinteractivity language in addition to standard features built into Mathematica are being used in teaching selected sophomore andsenior undergraduate electrical engineering classes at the University of Southern Maine. It describes how several typical problemsencountered in integrating advanced computational systems into an undergraduate curriculum have been addressed. Particularattention will be paid to the creation and classroom use of demonstrations illustrating some core ideas such as convolution, filtering,and frequency response.IntroductionRecent advances in software technology in Mathematica, a leading mathematical software system from Wolfram
collaboration.Paper OverviewThis paper will firstly outline and review the areas or lines of activity which need to be addressedto ensure a successful ongoing engineering technology international collaboration from thedepartment head’s perspective. Each of the areas is briefly discussed in terms of variousapproaches towards making progress in the form of guidelines, protocol proposals, course andcurriculum matching, language and terminology normalisation or matching, calendarcomparisons and actions to be taken.The paper will then go on to provide an overview and then address in some detail the practicaland organizational issues which need to be addressed. These will include comparison ofdepartmental organizational structures, curriculum subject mapping
Prairie View A&M University in 1993, and a PhD degree in electrical engineering from Texas A&M University in 2003. From 1998 to 1999, Dr. Obiomon served as an adjunct faculty at the Rochester Institute of Technology, in the Department of Micro-electronics in Rochester, New York. From 2000-2002, she was the lead data processing system hardware engineer in the Shuttle Avionics Integration Laboratory at the Johnson Space Center in Houston, TX. In 2003, she joined the Department of Electrical and Computer Engineering at Prairie View A&M University. She is currently serving as the Department Head of the Electrical and Computer Engineering Department at Prairie View. Dr. Obiomon’s research interests include the
hardware. For the Fall 2015semester, the class was transformed to utilize microprocessors and focus on hardware limitations.The transformation was done for primarily two reasons. 1) To advance the course’s curriculum.2) Improve student retention.Every day we interact with and are surrounded by embedded systems. From cars to microwaves,they have become an integral part of everyday life. It’s no surprise then that the area ofembedded system design has grown tremendously in the past few years [1]. More graduates areworking with microprocessors as a result of the growing embedded systems field and wouldbenefit from working with them and coding during their undergraduate coursework. Therefore, itwas decided that the courses’ new focus would be centered
Orientation at MSUOne of the major applications of electrical circuits in the ME curriculum was found to be in theirlaboratories. When conducting an experiment, the majority of the instrumentation and datarecording relies on a knowledge of electrical circuits. The ME department at MSU offers asequence of three laboratories, which are taken starting toward the end of the ME curriculum. Itincludes: ME3701 Experimental Orientation (EO), ME4721 Experimental Technique I (ET1),and ME4731 Experimental Technique II (ET2). The laboratories are intended to provide ahands-on environment to reinforce concepts learned in other courses, including those outside theME home department. ME3701 (EO) gives the students an introduction to the use ofinstrumentation for
Computer Engineering at Temple University specializing in electrical machines and power systems, multimedia tutoring, and control and optimization of dynamic sys- tems. His current research focuses on security of cyber-physical systems based on multiagent framework with applications to the power grid, and the integration of an intelligent virtual laboratory environment in curriculum. He is a member of IEEE, ASEE, and Sigma Xi.Walid Saad, Virginia Tech Walid Saad received his Ph.D degree from the University of Oslo in 2010. Currently, he is an Assistant Professor and the Steven O. Lane Junior Faculty Fellow at the Department of Electrical and Computer Engineering at Virginia Tech, where he leads the Network Science
© American Society for Engineering Education, 2007 Design and Implementation of a Program Outcome Assessment Process for an ABET-accredited Computer Engineering ProgramAbstractThis paper describes the design and implementation of a program outcomes assessment processfor the Computer Engineering Program at the Henry Samueli School of Engineering, theUniversity of California, Irvine. The purpose of the assessment process is to collect and analyzeinformation on student performance in order to improve student learning and the effectiveness ofthe curriculum, and to meet the ABET accreditation requirements. In the last two years we haveadopted two new direct measures of program outcomes which are
2006-2270: A QUALITATIVE AND QUANTITATIVE EVALUATION TOOL FORAN ELECTRICAL ENGINEERING LEARNING COMMUNITYMani Mina, Iowa State University Mani Mina (SM’98) received the B.S. degree, the M.S. degree in physics, and the M.S. and Ph.D. degrees in electrical engineering from Iowa State University, Ames, in 1982, 1985, 1987, and 1989, respectively. He has research experience in applied electromagnetics, microelectronics and device physics, nondestructive evaluation, instrumentation, networking and physical layer issues. He has had industrial experience in the areas of instrumentation, system integration, and design in nondestructive evaluation and handheld computer systems. Currently
American Society for Engineering Education, 2015Teaching Digital Designs by Building Small Autonomous Robotic Vehicles Using an FPGA PlatformThis article discusses the experiences of implementing a new model in teaching and learningdigital designs using Verilog in an embedded systems design course. This paper discusses thecourse structure, laboratory exercises, student projects and project evaluation process, and finallythe student evaluation outcomes. Students’ course assessment and student learning outcomeswere very positive. In many existing digital designs curriculum, students learn how to createstructural and behavioral models in Verilog Hardware Description Language (HDL) to designsimple combinational and
Paper ID #13650A Hybrid Approach to a Flipped Classroom for an Introductory CircuitsCourse for all Engineering MajorsDr. Steven G Northrup, Western New England University Dr. Steven G. Northrup, an Associate Professor of Electrical and Computer Engineering at Western New England University, earned a BSEE from the University of Michigan, Ann Arbor, and an MSEE & Ph.D. from Vanderbilt University. Before attending Vanderbilt University, he worked in the defense industry in Whites Sands, NM and in the automotive electronics industry designing climate control systems for Ford Motor Company. At Western New England University
previous literature, favorable results follow the inclusionof authentic, disciplinarily realistic tasks. Nonmajor students are more motivated to engage withthe content when shown plenty of evidence that this seemingly unrelated course is relevant totheir disciplinary interests and career goals.In calculus-for-engineers, this approach involves presenting situations in engineering where themathematics being learned describes an engineering system, such as derivatives in the context ofprojectile motion, or integrals in the context of fluid pressure on dams 8,9 . One textbook 13 presentsintroductory precalculus and calculus entirely with engineering examples, every example problemand homework problem has genuine engineering context such as strain
one of the importantgoals of the undergraduate engineering curriculum. Accordingly, Bloom’s taxonomy has becomean important tool for science and engineering educators [16][17][18] to ensure an adequatecoverage of high-level cognitive skills in the curriculum in order to prepare students to effectivelydesign engineering systems in industry [19].The application of Bloom's taxonomy to the laboratory experiences and reports assessed in thispaper is shown in Figure 1. Students are expected to enter into the laboratory with prior knowledgeof Finite State Machines and the fundamentals of Hardware Description Language(SystemVerilog). The 6th level of Bloom’s taxonomy was not included in the study because theoutcome (goal) of the laboratory was
plates, as shown in Figure 1(b). (a) (b)Figure 1: (a) Configuration of rectangular conduction plates with a uniform charge distribution(b) actual electrostatic defection platesThe intentionally vague specification of the task is to calculate the vector electric field at anarbitrary location P(x,y,z) for a specific uniform charge density S. The width X1 and length Z1of the rectangular plates, the angle and the charge density S are randomly assigned to eachstudent to avoid direct duplication of the results.The course learning objective is to effect the translation of a problem to an engineering analysisto be solved by discrete summation, rather than integration, and to formulate a
the curriculum, as every class is coupled with a laboratory. Labs are always team-based and, whenever possible, a “real-world” problem is assigned as a final project. The AeA involvement with the project ensured that a vast number of local and regional industrial partners were available from the very inception of the program, thereby simplifying the initial contact with local and regional industry. This aggressive solution intends to provide students with a much more seamless transition into the labor force, and to better prepare them for the changing engineering profession [8].ii. Serve place-bound students. In an effort to fulfill the needs of both the industrial community and of those
secondary and post-secondary education.Prof. Paul Imbertson, University of Minnesota, Twin CitiesDr. Tamara J Moore, Purdue University Tamara J. Moore, Ph.D. is an Associate Professor of Engineering Education at Purdue University. Dr. Moore’s research is centered on the integration of STEM concepts in K-12 and higher education mathe- matics, science, and engineering classrooms in order to help students make connections among the STEM disciplines and achieve deep understanding. Her research agenda focuses on defining STEM integration and investigating its power for student learning. She is creating and testing innovative, interdisciplinary curricular approaches that engage students in developing models of real world problems
as the Page 22.847.13interface realms. Although it was a valuable learning experience that may even be closer to thereal world situation, the compounded complexity inevitably prolonged the lab sessions and inone group case the standard three-hour lab session became an over six-hour adventuring ordeal.This complication can be largely reduced in the future when a full LabVIEW thread isimplemented in the PBL enhanced curriculum. There we will have sufficient dedicatedLabVIEW sessions as well as integrated lab and LabVIEW sessions on a learning curve withmuch reduced slope throughout the curriculum. Additionally, integrating some basicrequirements
same topic. This iscontrary to a typical conference event where selected speakers/experts are invited to present in astructured track format, hence the name, unconference. Professional societies in technology andengineering fields generally conduct an unconference in their annual meetings to receive“holistic” views on problems in the field in order to develop research questions and grandchallenges. The concept of unconference motivated us to develop an active-learning techniquecalled UnLecture, to integrate real-world experiences into engineering classrooms.Undergraduate engineering students at the University of Cincinnati (UC) are required toparticipate in a mandatory cooperative education (co-op) program in which students supplementtheir
computer engineering and computer sciencemajors. Computer engineering faculty are presently considering whether the curriculum needs tobe altered to place more emphasis on these two courses. It seems likely that we will require thecourse on Human-Computer interfacing and make the presently required course on ProgrammingLanguages an elective. A revision of the linear systems sequence is being considered to providemore emphasis on Digital Signal Processing.It seems unlikely that we will ever have open ended projects related to Probability and Statistics,Algorithms, Database Systems, Social and Professional Issues, or Software Engineering. Thesetopics will be left for coverage in the senior capstone project or in other coursework. Ourprogram provides
beginning. In each course, students have opportunity to redesign/modify thesubsystem relevant to the particular course they are in. After completing these three courses in asequence, students will have design and testing experience with component, subsystems, andfinally an integrated system. Details of the platform project as well as individual course projectswill be described in this paper. The assessment method for course evaluation will be presented atthe end of the paper along with students’ feedbacks and course-exit survey results.I IntroductionTraditionally major courses in ECE four-year undergraduate curriculum are taught in relativeisolation with each course focusing on its own teaching materials and structure. It was found thateven the
[10], an academic unit started a two-year project geared toward developing computer-based laboratory instruments (CLIs) for custom hardware. The program goal was set to have theCLIs integrated into the undergraduate curriculum, giving students a first-hand laboratoryexperience. The ease of use and flexibility demonstrated in LabView made it a proficientsolution.The unique UPS system that this paper is focused on presents a similar opportunity in the designof electronic instrumentation and control for a custom UPS system. The purpose is to adapt theindustrial power unit for educational purposes in power electronics and energy storage areas.Traditionally, undergraduate programs supplement instruction with a series of laboratoryexperiments in
management of stack frames. An online labmanual has been developed for this course that is freely available for extension or use by otherinstitutions.Our previous papers reported on pedagogical techniques for facilitating student understanding ofthe relationships between high-level language constructs, such as algebraic expression syntax,block-structured control-flow structures, and composite data types, along with theirimplementations in machine code. While this integrated approach to introducing control-flowstructures has been successful, many students have been confused by the large number ofdifferent addressing modes. The present paper describes further extensions of this integrated C-and-assembly language pedagogical approach in which
develop industry-readiness in our students and support theirlearning of professional skills. The course is not designed to teach additional technical content,but rather to give students opportunities to integrate the content learned across other courses intoa single project. Because of this, students are required to have two engineering scienceprerequisite courses completed before taking the course, an introductory controls systems courseand a microcontrollers course. In our curriculum, SEED Lab replaced another requiredmultidisciplinary discrete experiments-based laboratory course which had less intensivetechnical learning objectives and lacked an explicit emphasis on intradisciplinary systemsintegration. SEED Lab is a prerequisite course for EE
development well before senior Capstone projects. 2. Integrate various strands of electrical and computer engineering through experiential learning.Given that there was little room in our freshman and junior year curriculum, the only option wasto add a sophomore-level course. This means that we will have to rely on individual courses inthe junior year to carry on the development of student skills and abilities. For the second goal,we decided to use advanced IoT-ready microcontrollers as a standard tool. This decision hasaffected our freshman courses because we will now require that some basic skills related toprogramming be more targeted towards microcontroller programming.One issue that all engineering programs face is an overcrowded
facultybecause doing so challenges students to engage productively beyond the technical and requiresfaculty to devote class time to these themes. In this paper, we describe the design andimplementation of three modules that integrate technical and social content to enhance studentlearning: one dealing with conflict minerals in capacitors, a second with design considerationsfor an innovative solar power source for use in developing nations, and a third with recycling ofelectronics. Modules included student homework, guest lectures, in-class discussions, andstudent presentations. Students recognized this material as not deviating from the technicalcontent of the class but rather contributing to their efforts to understand the implications of thistechnical
challenge presented in many engineering programs is how to integrate experimental designinto courses that are not coupled with lab components. Since the dissemination of the findingsfrom the groundbreaking study by Hake, engineering departments recognized and implemented arange of innovative pedagogical styles in an effort to advance the value of interactive learningstrategies1. Hence, the engineering field has experienced a proliferation of “interactive learning”models, many of which report the positive impact on student attitudes and knowledge. Buckand Wage have used an array of what they term “active and cooperative learning (ACL)”methods to enhance courses in signal processing2. The model developed by Gleixner andLackritz included weekly in
American Society for Engineering Education, 2012 Smart Control of Power Electronic Converters in Photovoltaic SystemsAbstractThis paper presents an overview of the techniques used to control the power electronicconverters used to integrate renewable energy sources to the electric grid. Moreover, a smartfuzzy-PID controller for DC-DC boost converters, which are the most commonly usedconverters as voltage regulators in Photovoltaic (PV) systems, is presented. Details about theeducational side of these concepts; in-class, simulation and experimental demonstrations are alsoincluded. The proposed fuzzy-PID controller maximizes the stable operating range by tuning thePID parameters ultimately at various loading conditions. Then, a fuzzy logic
. Based upon these and similar experiences, it is clear that theeffectiveness of an EAP depends heavily on planning and practice before emergencies; inconjunction with clear coordination and communication linkages to integrate stakeholders duringrecovery.[1] It was this challenge that our student engineers faced when developing the first planfor New Jersey from scratch, assuring it would meet the specific needs of this coastal state. The purpose of EAPs was established by multiple Federal entities who created a set ofhelpful and prescriptive guidelines to assist states in creating their custom EAP. The lead agencywas the U.S. Department of Energy’s Office of Electricity Delivery and Energy Reliability (OE).Other key entities who aided in
AC 2010-498: EMULATION OF A WIND TURBINE SYSTEMRuben Otero, Student at University of Puerto Rico - MayaguezApurva Somani, University of MinnesotaKrushna Mohapatra, University of MinnesotaNed Mohan, University of Minnesota Page 15.458.1© American Society for Engineering Education, 2010 Emulation of a Wind Turbine SystemAbstractRecently there has been an increasing interest in wind power generation systems. Amongrenewable sources of energy (excluding hydro power), wind energy offers the lowest cost. It istherefore imperative that basics of wind power generation be taught in the undergraduateelectrical engineering curriculum. In this paper, an experiment