AC 2007-1924: FIXED-POINT DSP IMPLEMENTATION: ADVANCED SIGNALPROCESSING TOPICS AND CONCEPTUAL LEARNINGWayne Padgett, Rose-Hulman Institute of Technology Wayne T. Padgett received his Ph.D. from Georgia Institute of Technology in 1994. He has been teaching digital signal processing and related courses at Rose-Hulman Institute of Technology for 12 years. He is a member of ASEE, a senior member of the IEEE, and is on the IEEE Signal Processing Society’s Technical Committee on Signal Processing Education. Page 12.752.1© American Society for Engineering Education, 2007 Fixed-Point DSP Implementation
Paper ID #22084Enabling Advanced Topics in Computing and Engineering Through Authen-tic Inquiry: A Cybersecurity Case StudyDr. Mike Borowczak, University of Wyoming Dr. Mike Borowczak is the Director of the Cybersecurity Education and Research center (CEDAR) and a faculty member of the Computer Science department at the University of Wyoming. He earned his Ph.D. in Computer Science and Engineering (2013) as well as his BS in Computer Engineering (2007) from the University of Cincinnati. His research focused on detection and prevention of information leakage from hardware side channels. Mike’s current research interests
-Napoca, Romania, 1991-present: Faculty member at the Technical University of Cluj-Napoca, Romania (professor since 2004) Manage- rial Experience: 2006 - present, General Manager of Digilent RO International Experience: 1999-2000, Visiting Professor at Washington State University, Pullman, Washington, USA.Mrs. Monica Ignat (Bot), Digilent She graduated from Technical University of Cluj-Napoca Romania, Electronics major, in 2009 and has been with Digilent for 5 years. She organized five of the European Regionals of the Digital Design Contest in the past years.Mr. Alex Wong , Digilent, Inc.Joe Harris, Digilent, Inc
Pólya’s method becausemost students have poor skills in these areas. Future plans address math literacy further and seekmore effective ways of implementing some techniques.Because students’ knowledge and skills will vary, it is prudent to check prerequisite knowledge,as well as basic problem-solving ability, at the start of the semester, and then address anynecessary issues that arise before they interfere with achieving the course objectives. Technologycan facilitate this process, if used judiciously with educational objectives in mind. However,because technology is evolving rapidly, periodic assessment is prudent. Bibliography[1] S. Lipka, "Many College Students Graduate With Low Proficiency in
mechatronics program at ourinstitution has experienced a steady growth trying to meet this need. However, the curricularchanges that follow these fast-paced technologies are often difficult to implement in theclassroom in a timely manner. Often, new products become available but without appropriatedocumentation for quick implementation in educational laboratories. It may take a year or longerto develop a set of laboratory exercises for a new microcontroller or a 3D printer. Thus, theknowledge must come from other informal sources, like workshops, technical presentations,conferences, etc. Students are taught to embrace change and keep current. This is in accordancewith ABET EAC General Criterion 3, Student Outcomes1 (i) “a recognition of the need for
design and analysis of machine learning algorithms and their limitations. ©American Society for Engineering Education, 2020 Cybersecurity, Digital Forensics, and Mobile Computing: Building the Pipeline of Next- generation University Graduates through Focused High School Summer CampsAbstractTo prepare the next generation of skilled university graduates that would help in filling the nationalneed for cybersecurity, digital forensics, and mobile computing professionals, a team ofminority/under-represented graduate students, the University Upward Bound Program (a federallyfunded program and part of the U.S. Department of Education; one of 967 programs nationwide)staff, and faculty from the Computer
Romanian Agency for Quality Assurance in Higher Education), and other (email: lucian.cioca@ulbsibiu).Dr. Richard Chiou, Drexel University (Eng. & Eng. Tech.) Dr. Richard Chiou is Associate Professor within the Engineering Technology Department at Drexel Uni- versity, Philadelphia, USA. He received his Ph.D. degree in the G.W. Woodruff School of Mechanical Engineering at Georgia Institute of Technology. His educational background is in manufacturing with an emphasis on mechatronics. In addition to his many years of industrial experience, he has taught many different engineering and technology courses at undergraduate and graduate levels. His tremendous re- search experience in manufacturing includes environmentally
high-speed, low-power hardware algorithms for the multidimensional packet classification problem. His professional interests are diverse and revolve around the intersection of sev- eral topics, including high-speed internet protocol networking and computer communications, internet security, engineering education, computational intelligence systems, knowledge discovery in data, large- scale distributed systems integration, and collaboration platforms via generalized cloud computing service models. Thames currently holds a full-time staff position as Systems Analyst III for Georgia Tech, while concurrently completing his Ph.D. Thames has held several positions at Georgia Tech including Lead Teaching Assistant as an
AC 2012-5316: LOW-COST EDUCATIONAL LASER BASED VIBRATIONMEASUREMENT SYSTEM WITH IMPROVED SIGNAL CONDITION-ING, PYTHON AND MATLABDr. Jonathan M. Hill, University of Hartford Jonathan Hill is an Associate Professor in electrical and computer engineering at the University of Hart- ford in Connecticut. He has a Ph.D. and M.S.E.E. from Worcester Polytechnic Inst. in Worcester, Mass., and he was previously a Project Engineer at Digital Equipment Corp. He instructs graduate and un- dergraduate computer engineering computer courses, directs graduate research, and performs research involving embedded microprocessor based systems. His current projects involve small system design, signal processing, and intelligent
, and other problems that are too time-consuming to solveanalytically, but the strategies for effective use of computational methods are not unique to thisfield. The paper presents general conclusions with strategies to implement a computer simulationtool like MATLAB/Simulink to teach advanced topics. The learning modules solve difficultproblems that would be impossible to solve analytically without advanced graduate levelcoursework and/or an inappropriately large amount of time.Over six-years of adapting and changing the learning modules, student success on – andperception of – the assignments improved. Use of computational tools broadens course contentdelivery by covering topics inaccessible through analytical methods in a first course on
Software Verification and Validation User Community – A Work in ProgressAbstractSoftware quality is a crucial issue in software engineering. As software has becomeubiquitous, software products have become critical. This poses multitude of problems in thesoftware industry, as there is generally a lack of knowledge of Software Verification andValidation (V&V) benefits and also there is a significant shortage of adequately trained V&Vpractitioners. This paper describes outlines of a research study that focuses on bridging thesesupply and demand and knowledge and training gaps in V&V education. Research outcomesboth in terms of domain-specific research as well as pedagogical impact are presented. The basicproject objectives
of these topics. To mitigate the deficiency of skills and knowledgerelated to numerical methods and programming, the authors conclude with a series of strategiesthey intend to employ to improve students' numerical methods and programming skills.numerical method and programming exposureRecognizing incoming freshmen students often have minimum exposure to numerical methodsand programming during their K12 education, the College of Engineering at Texas TechUniversity recently revised an existing course to introduce these concepts early across everyengineering program. The objective of the course is to provide a basic introduction toengineering problem solving and programming and impart competence in entry level numericalmethods including
AC 2012-5302: THE CPLD PROVIDES A THIRD OPTION IN THE IN-TRODUCTORY LOGIC CIRCUITS COURSEDr. Jonathan M. Hill, University of Hartford Jonathan Hill is an Associate Professor in electrical and computer engineering at the University of Hart- ford in Connecticut. He has a Ph.D. and M.S.E.E. from Worcester Polytechnic Inst. in Worcester, Mass., and was previously a Project Engineer at Digital Equipment Corp. He instructs graduate and undergrad- uate computer engineering computer courses, directs graduate research, and performs research involving embedded microprocessor based systems. His current projects involve small system design, signal pro- cessing, and intelligent instrumentation.Dr. Ying Yu, University of Hartford
and social media literacy in their curricula. The myth ofthe digital native has done more harm than good to the Millenial generation: It hasincreased older adults’ expectations about students’ baseline knowledge levels, and hasresulted in failure to educate students about topics that may greatly affect their futures. Itis time to base our curricula on research, rather than myth. The research reviewed so farshows that students need our help when it comes to social media, and social medialiteracy should be included in undergraduate college education. However, none of theprevious research has addressed the specific case of engineering and technology students.It is possible, that given their advanced technical skills, engineering and
. This was implemented in awireless communications course of 30 students in an undergraduate engineering program.Nonparametric comparative analyses are performed to determine the effect of the gameintervention so as to answer the following research question: What is the change in studentperformances in an undergraduate communications course that uses a game intervention todeepen understanding of wireless topics in the course material?IntroductionThe importance of preparing the next-generation workforce in engineering cannot beunderstated. Undergraduate engineering education is vitally important to this venture and mustundergo continuous improvements to meet dynamically changing needs in industry and research.This paper explores the effects of a
institution, Wright State University; and externally evaluated by a reviewer whowas neither from the participating institutions nor directly involved with the project. Theachieved goals and discovered issues were reported and discussed. Overall, the resultsdemonstrated a positive example of integrating modern technology and research intominority undergraduate education, thereby enhancing the minority undergraduateComputer Science curricula.1. IntroductionThe explosion of the modern wireless technology1 has made it an intriguing topic in highereducation. Many talented students in the Science, Technology, Engineering, andMathematics (STEM) programs are eager for hands-on experience to discover howwireless communication works. However, wireless
Paper ID #19820Using Torch in Exploratory Signal ProcessingDr. Krista M Hill, University of Hartford Dr. Krista M. Hill is an associate professor in Electrical and Computer Engineering at the University of Hartford in Connecticut. PhD and MSEE from Worcester Polytechnic Inst. in Worcester, Mass., and pre- viously a project engineer at Digital Equipment Corp. She instructs graduate and undergraduate computer engineering computer courses, directs undergraduate and graduate research. Her current projects involve small system design, signal processing, and intelligent instrumentation. c American
studies to beconducted assessing the usability of various low-cost commercially available VR platforms. Datagathered will be used by stakeholders and decision makers to aid in the purchasing of VR hardwarefor academic classroom use. The ultimate goal is to continue studying the interaction effectbetween routine classroom instructor-led teaching (i.e. lecture-based multimedia instruction) andimmersive VR teaching (i.e. VR-based multimedia instruction) in terms of learning. Theexperimental study used a convenience sample from a freshman course (two sections) at a land-grant university. Observations include a general overall excitement by participants to use VR nomatter which system offered. This study has quantified the usability of the systems
American Society for Engineering Education, 2018 Modeling a Perceptron Neural Network Using Verilog Developed Floating- Point Numbering System and Modules for Hardware SynthesisAbstractThe purpose of a capstone design project is to provide graduating senior students the opportunityto demonstrate understanding of the concepts they have learned during the course of their studies.As with many engineering programs, students of the computer engineering program at Utah ValleyUniversity (UVU) conclude their degree programs with a semester capstone design experience.This paper presents the details of a sample project that a student has done in this capstone course.This senior design project implements the perceptron neural network using Systems
• computer searches of databases such as PubMedJournal management platform ScholarOne includes their “Reviewer Locator” [7] to offer upnames, but the underlying process for how those names are identified is unknown. This system isused by ASEE’s Journal of Engineering Education (JEE). Lisa Benson [8], current editor ofJEE, offers the following guidance for Associate Editors (AEs): In general, reviewers should be chosen to reflect the broad, growing, global field of engineering education, including content domain experts and experts in education and the learning sciences. Also, well-qualified graduate students may be invited to review manuscripts. Consider choosing reviewers for their expertise in the methodology used by
AC 2011-2463: USE OF COMPUTERS IN THE INSTRUCTION OF EMPROPAGATION IN THE CLASSROOMWillie K. Ofosu, Pennsylvania State University, Wilkes-Barre Campus Dr. Willie K. Ofosu is an Associate Professor of Electrical Engineering Technology at Penn State Wilkes- Barre, where he teaches telecommunications, wireless systems, networking, optoelectronics and analog and digital electronics. He is a member of IEEE, IET (England), and a Chartered Engineer (CEng) of England. His research interests include RF components and antennas, and Powerline Communication. He is an advocate of diversity in the educational environment. Dr. Ofosu received his Ph.D. from the Electronic Systems Engineering Department at University of Essex in
AC 2011-1025: INTEGRATING COMPUTING INTO THERMODYNAM-ICS: LESSONS LEARNEDMelissa A. Pasquinelli, North Carolina State University Dr. Melissa A. Pasquinelli is an Assistant Professor in Textile Engineering at North Carolina State Univer- sity. Her research expertise is in the design and application of computational approaches that predict and modulate the properties of systems at the nanoscale, including polymers, proteins, and fibers. (More infor- mation about her team and their research projects can be found at http://www.te.ncsu.edu/mpasquinelli.) She also teaches a variety of courses each year at the undergraduate and graduate levels on topics such as computer modeling, engineering thermodynamics, sustainability
computer science at Michigan Technological University. She received her PhD from the Computer Science Department at the University of Pittsburgh. Her research areas are artificial intelligence planning systems, decision making under uncertainty, student persistence, and computer science education. She received the Michigan Tech university wide Distinguished Teaching Award in 2013. Her web page can be found via http://www.cs.mtu.edu/.Dr. Ching-Kuang Shene, Michigan Technological UniversityDr. Chaoli Wang, Michigan Technological University Chaoli Wang is an assistant professor at the Department of Computer Science, Michigan Technological University. He received the PhD degree in computer and information science from The Ohio
and implemented in an intermediate-level engineeringcourse. The new method utilizes an “inside-out” approach in which prerecorded lectures areassigned to be watched at home while problem-based “homework” assignments are completed ingroup work mode during face-to-face classroom meetings. The new techniques are meant toaddress the desired learning modes of a new generation but are also consistent with educationalliterature that has praised interactive group-based learning, a self-directed learning trend, and theefficient use of new technology to make content more accessible and available. Theinvestigators hope the new method will both improve learning and make the educational processmore efficient for all involved.Initial results have been very
‟ capacity for independent learning, andare preferred by most students over text-based resources.The rational and need for video-based lab tutorialsIncreases in system complexity, the pace of innovation, and the changing job market havecombined to require that graduates have a solid foundation in engineering, measurement andtesting skills, regardless of their engineering discipline1. In order to become life-long learners,students must develop a capacity for independent learning2. Thus, creating opportunities forindependent learning is arguably the most important part in engineering education. Laboratoryexercises are a fundamental part of the education process, helping to create experiential learningenvironments and to build students‟ intuition based
Engineering) from Ok- lahoma State University in 1986. He has published 60+ abstracts and articles in journals and contributed chapters to four books. Dr. Yuan continues to serve as peer reviewer for state, private grant programs and different professional journals and magazines. He is the board member of USEPA Monitoring Group, Gulf of Mexico Program. He is also council member of Mississippi Citizen Crops, Mississippi Office of Homeland Security. Dr. Yuan is the recipient, 2002 Outstanding Mentor of the Year, The Alliance for Graduate Education in Mississippi. 2004 recipient of Recycler of the year, presented by Mississippi Recycling Coalition. Professor Yuan is the JSU/Hinds County/MDEQ Computer Recycling Program di
Society for Engineering Education, 2014 Work-in-Progress: Developing Online Graduate Courses in Electrical EngineeringA. IntroductionThe Department of Electrical Engineering at Stanford University has a long history ofteaching large-enrollment master’s level and advanced undergraduate courses with broadappeal and applicability. At present twelve such courses are offered, each with annualenrollment of more than 80 students. Another dozen or so courses have somewhat smallerenrollments. These courses are taken by Electrical Engineering students as well as studentsfrom other departments within the School of Engineering and the rest of the University.Many of the courses also make up the core of a professional
engineering education in the United States remains largelyunexplored.A distinctive feature of knowledge building is that it is idea-centered, a characteristic essential ina knowledge age pedagogy. By focusing on ideas rather than schoolwork and tasks, knowledgebuilding supports the intentional, reflective, and metacognitive engagement required for deeplearning. In a knowledge-building environment the focus of the learning community is oncontinually improving ideas. It begins with a question of understanding that is developed by theparticipants, such as, Why do we need water to survive? Learners are encouraged to generate andpost their ideas about the topic--typically in an asynchronous, online group workspace such asprovided by Knowledge Forum
usage of new technology and notparticipant observation.Future work planned for this ongoing research should expand to the following areas: 1)development of an iBook for the iPad on the more complex engineering topics to increaseclassroom performance as shown from the Exam II results, 2) the digitalization of the coursetextbook and implementation on the iPad platform which could greatly impact the study habits ofthe students, and 3) the implementation of the iPad in higher-level engineering classes.1 Jacobsen, D. M., "Adoption patterns of faculty who integrate computer technology for teaching and learning in2higher Gibbons, education," M. T., “The 1998Year World
question and answer sessions facilitated through a chat tool c. Discussion Board, consisting of a thread for each Practice problemIn general, students were encouraged to utilize the resources that they found most useful to themas individual learners. Students could choose to participate in the Classroom Activities eachclass meeting. With this approach, they would be exposed to all fundamental course topics Page 23.1104.3through Lessons and Problem Solving guided by the Instructor in the classroom. Alternately,students could choose to access the Online Resources to review material independently.Students were not forced to choose an