. University of Florida, Electronics Laboratory - EEL 4304L - Spring 2000,http://www.bosman.ece.ufl.edu/eel4304lsylS2000.html7. Colorado School of Mines, Division of Engineering, Multidisciplinary Engineering Laboratory, MEL-I, MEL-II,MEL-III, http://egweb.mines.edu/mel/8. T. Roppel, J. Y. Hung, S. W. Wentworth, and A. S. Hodel, " An Interdisciplinary Laboratory Sequence inElectrical and Computer Engineering: Curriculum Design and Assessment Results," IEEE Transactions onEducation, 43(2), 143–152, May 2000.9. T. Roppel and A. S. Hodel, "Assessment Results for a Recently Introduced Interdisciplinary Laboratory Sequencein Electrical Engineering," ASEE’99, Charlotte, NC, June 20-24, 1999.10. Hung, J., “An integrated junior-year laboratory based on an
AC 2010-250: PREPARING FOR ENGINEERING 2020: A NEW COURSE INELECTRONIC MANUFACTURING FOR ELECTRICAL AND COMPUTERENGINEERING MAJORS.Maher Rizkalla, Indiana University-Purdue University, IndianapolisMIchael Knieser, ILSIMohamed El-Sharkawy, Purdue University Page 15.974.1© American Society for Engineering Education, 2010 Preparing for Engineering 2020: A New Course in Electronic Manufacturing for Electrical and Computer Engineering Majors. Maher E. Rizkalla, Michael Knieser, and Mohamed El-Sharkawy, and Nilashis Dey Department of Electrical and Computer Engineering 723 West Michigan Street (Rm. SL160
creatingcomputer based instructional content. The templates for many of the games and quizzespresented on the teaching toolbox site were designed so that they could be used by students withlimited computer skills. The creation of tutorial movies by students in engineering graphics hasbeen successful to the extent that the student materials represent a significant portion of thecourse content. The greatest depth of knowledge achieved by students occurred in areas wherethey created instructional content for others.Bibliography[1] Crown, S., Freeman, R., and Fuentes A.A., “Asynchronous Computer Based Training as a Means of Integratingthe Use of Engineering Software into the Curriculum”, Computer in Education Journal, Vol. XIV No.3, July-September 2004.[2
. 11. INTRODUCTIONSeveral factors have been identified to contribute to the uneven pursuit and completion of engineering andcomputer science degrees based on race and ethnicity: (a) the lack of exposure to engineering or computerscience as fields of study or as career opportunities [1], (b) the lack of professional identity (inability tosee oneself as a professional) [2], (c) an impaired sense of belonging [3, 4], and (d) the lack of self-efficacy (how well one can execute a course of action to deal with a prospective situation) [5]. Thedemands of an engineering and computer science curriculum contribute to high dropout rates [6], evenhigher for underrepresented students [3, 7, 8]. Early failure in math and science courses pose a barrier
Paper ID #28083Physical Computing Design Project to Promote Equity and Community in anIntroductory Engineering CourseDr. Jennifer Mullin, UC Davis Jennifer S. Mullin is a faculty member in the Department of Biological and Agricultural Engineering at UC Davis. 2019 FYEE Conference : Penn State University , Pennsylvania Jul 28 WIP Paper: Physical Computing Design Project to Promote Equity and Community in an Introductory Engineering CoursePrior to matriculation, first year engineering students at UC Davis, a large public university,declare majors in one of the eight academic departments offering
Department of Education’s academic standards specifically cite “TechnologyEducation” as an objective at all K-12 grade levels.11 Included in this set of standards are missivessuch as, “apply basic computer operations and concepts,” with minimal guidance as to how todesign and implement lesson plans to advance the student’s technical proficiency. While thisopenness enables freedom within curriculum development, it can also mean that technologyprograms are underdeveloped, understaffed and without the technical support needed to sustainsuch programs on a daily basis. To address these challenges, educational Fellows of the National Science Foundation’s (NSF)GK12 program have introduced a pilot program of computer-aided instruction (CAI) at two site
‘7 .— - Session 1626 ..... ..... Integration of Polymer Processing, Computer Integrated Manufacturing, and Metal Casting Processes via Rapid Prototyping Laura L. Sullivan and Winston F. Erevelles GMI Engineering & Management InstituteAbstractFacility preparation and curriculum design issues have been studied and a Stereolithography Apparatus hasbeen purchased to be used by students of Polymer Processing
betweenabstraction layers in the fluid manner necessary to solving complex problems with programs.What this suggests is that closer coordination is needed across courses in a curriculum so thatgoals of one become background knowledge of subsequent courses, resulting in successfulachievement of program learning goals by the time of graduation.References [1] U.S. White House. Computer Science For All. whitehouse.gov. Jan. 30–2016. URL: https://www.whitehouse.gov/blog/2016/01/30/computer-science-all (visited on 02/01/2016). [2] code.org. Every child deserves opportunity. Code.org. 2016. URL: https://code.org/ (visited on 02/01/2016). [3] Lauren Rich, Heather Perry, and Mark Guzdial. “A CS1 Course Designed to Address Interests of Women
that they enjoyed working in teams andacquiring new knowledge. In this age of technological change, the best preparation which wecan give students is preparing them for life-long learning. In field session, students learned tosolve problems and find the resources essential to bring their projects to a successful completion.BARBARA BLAKE BATH is Associate Professor of Mathematical and Computer Sciences at Colorado School ofMines. She coordinates the undergraduate curriculum and has been active in the curriculum reform effort at theschool for the past three years. She taught the course described in this paper in Spring, 1996. Her BA and MA arefrom the University of Kansas and her PhD is from American University, Washington, DC
feedback cycles in classroom activities can scaffold and increase learnerengagement in mathematics classrooms [15].The scenario referenced a practicum in which upper level computer science students,collaborating with professors, developed a curriculum-fitting library of applets that the students,agents and professor could use. In this case, the students were also in a computer science course,but the model readily transfers to engineering education and will be used in an engineeringeducation research grant on complex problem solving skill from NSF’s Human and SocialDynamics Program. Applets are portable “mini-programs” that can produce text or videoexplanations, simulations, visualizations, animations, or graphical representations of courseconcepts
techniques, emphasizing logical reasoning and abstraction [1]. BME303 - Introduction to Computing, at its core, embraces these principles to prepare biomedicalengineering (BME) students with practical, interdisciplinary problem-solving tools. BME 303 is arequired freshman-level course in the biomedical engineering curriculum at UT Austin. The courseintroduces students to programming in C++ and Python, with a focus on computational problem-solving. Notably, the course has no prerequisites, allowing students with diverse backgrounds todevelop coding skills early in their academic journey.This abstract details the evolution of BME 303 from a traditional programming course to one deeplyembedded in biological and biomedical contexts. Through the
positively on theirengagements. Overall, faculty reported that the curriculum development process went smoothlywith grant staff’s intentionality about including key stakeholders in the process of curriculumdevelopment. Faculty reported being satisfied with the professional development and believed ithad applicable information to share with their students. Students reported that they learned a lotin the course and found it relevant to their education. Students appreciated the integration of thenon-profit’s workshops with the CC course and reported that they would participate in a similarcollaborative course in the future as well as recommend other students participate.The project’s research team, focused on understanding computing identity
new required 3- semester computational lab sequence in the MSE curriculum at OSU in 2013. From 2014 – 2017, she developed and led a program providing materials-science focused professional development to high school science teachers that was funded by the Ohio Department of Education. Much of her work in these areas has been presented at ASEE National Conferences and published in the peer-reviewed proceedings. Polasik has also presented her work at the North American Materials Education Symposium (2014 – 2017) and Materials Science and Technology (2015 and 2017) conferences. At Campbell, Dr. Polasik teaches courses in materials science, statics and mechanical behavior and thermodynamics. She spearheaded the initial
Paper ID #23092Work in Progress: Introductory Mobile Robotics and Computer Vision Lab-oratories Using ROS and MATLABMr. Robert L. Avanzato, Pennsylvania State University, Abington Robert Avanzato is an associate professor of engineering at the Penn State Abington campus where he teaches courses in electrical and computer engineering, computer science, and information sciences and technology. His research interests are mobile robotics, computer vision, intelligent systems, virtual world technology and innovative education.Mr. Culllen G Wilcox, Penn State Great Valley Cullen Wilcox is a senior in the B.S. Engineering
industrystandard networking technology to help students visualize power system phenomena as seen by thesystem operator via an Energy Management System (EMS). This new laboratory will become animportant piece of the new Drexel University curriculum, which emphasizes computer-aided design andhands-on laboratory experience coupled with longitudinal courses. A fault analysis experiment hasalready been designed on the IPSL and will be discussed as an example.2. IntroductionThe new Drexel Curriculum is a redesign of the methods of teaching electrical engineering fundamentalsand applications in a way that will meet the needs of the students and industry in the 21st Century. Thecurriculum revision will produce a set of modem courses emphasizing computer-aided
). c American Society for Engineering Education, 2017 Transformation of an Introductory Computer Engineering Course: Utilizing Microprocessors and a Focus on Hardware Limitations1. Introduction & MotivationKeeping a class’s curriculum current and fun is a difficult challenge within the ever-expandingfield of computer engineering. This is especially true at the introductory level as first yearcourses are intended to provide an overview of the entire field. Prior to the Fall 2015 semester,the Introductory Computer Engineering course at Kansas State University was centered arounddigital design (logic gates, flip flops, K-maps, etc.), with the lab sessions requiring students towrite HDL software with limited hands-on experience with
Paper ID #24561Cross-Case Analysis: K-12 International Teachers’ Perspectives on IntegratedSTEM and Computational Thinking PracticesMrs. Cristina Diordieva, Texas Tech University Mrs. Cristina Diordieva is the Project Coordinator for the World MOON Project. Mrs. Diordieva is currently a doctoral candidate in Educational and Instructional Technology (EDIT) program and minoring in Bilingual Education in the College of Education at Texas Tech University. She earned a BA majoring in French and minoring in Linguistics from Texas Tech University. She is highly interested in conducting research within the multidisciplinary studies
Paper ID #17144Measuring the Impact of Unique Entry-Level Instructional Course ModulesDesigned to Inspire Computer Science InterestDr. Araceli Martinez Ortiz, Texas State University - San Marcos Araceli Martinez Ortiz, PhD., is Research Assistant Professor of Engineering Education in the College of Education at Texas State University. She leads a comprehensive research agenda related to issues of curriculum and instruction in engineering education, motivation and preparation of under served pop- ulations of students and teachers and in assessing the impact of operationalizing culturally responsive teaching in the STEM
curriculum development grants for this program in both 2005-2006 and2006-2007 academic years.Bibliography1 "Cut to the Chase: Extensive Computer Applications in a First Engineering Course," 2005 ASEE AnnualConference & Exposition, T. Utschig2 "Freshman Engineering & Computer Science Program at Wright State University," 2005 ASEE AnnualConference & Exposition, B. Rowley and T. Bazzoli3 "An Innovative Approach to the Introduction to Mechanical and Aerospece Engineering Course: Pressure," 2005ASEE Annual Conference & Exposition, C. Mavriplis4 "Designing a Freshman Program to Support Student Success," 2005 ASEE Annual Conference & Exposition, R.Hensel, J. Byrd and W. Myers5 "New Paradigm for Foundational Engineering Education," 2005
describes how it is applied to computer graphicscourse. In this paper, we present the course structure, assessment method and continuousimprovement process.Introduction The Mechanical Engineering Technology (MET) program at UALR went through anABET review process recently. The objective of this paper is to discuss the general assessmentmethod developed by the MET faculty at UALR to evaluate student outcomes of the ABET-Engineering Technology Accreditation Committee Criterion 3 - Student Outcomes. Though thereare number of methods available to evaluate ABET criterion [2-3], this method is general enoughto evaluate any select student outcome using an appropriate course from the curriculum. Bothdirect and indirect assessments are used to
. This class with six lectures and 15 labs covered close to 500 students.Instructor styles differ for the lectures, while the computer laboratories utilize the same formatand are PC based in addition to notebook computers. This facilitates a number of students whowere taking the course without notebook computers.In addition to this first level course the use of notebook computers in the curriculum encouragedmany upper-level students who had notebook computers of their own but needed a wireless cardto purchase one and do their projects utilizing that technology. CS 398, the computer sciencesenior project course, changed as many students used their notebook computers with wirelesstechnology to solve project issues. As many of these students are
theintegration of project-based hardware programming applications into the curriculum. Thepaper details a successful implementation of this methodology within a first-year computingcourse, utilizing Arduino and MATLAB as the primary tools. The core of this approach is toimmerse students in hands-on hardware programming projects, aiming to foster a deeperengagement and enthusiasm for engineering applications and computational thinking. Thismethod has demonstrated a significant enhancement in student performance within thecourse. Comprehensive statistical assessment methods were employed to validate theeffectiveness of this teaching model. These included quantitative and qualitative analyses,offering a robust evaluation of the pedagogy's
Paper ID #29675Work-in-progress: Implementing Sophomore Cornerstone Courses inElectrical and Computer EngineeringProf. Branimir Pejcinovic, Portland State University Branimir Pejcinovic received his Ph.D. degree from University of Massachusetts, Amherst. He is a Pro- fessor and former Associate Chair for Undergraduate Education at Portland State University, Electrical and Computer Engineering department. In this role he has led 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
are moreinterested in basic understanding and application of programming to problem solving, for whicha simpler assessment seems sufficient.In the sections below we will discuss implementation of proficiency-based testing (PT) acrossmany courses in the computer science program and follow that up with a discussion ofcompetency-based testing (CT) in one freshman electrical engineering course.Proficiency-based Testing in CS: BackgroundThe core programming competencies expected of Computer Science (CS) undergraduatestudents are cumulative. The first two years of PSU’s CS program builds foundational levelmaterial needed by most courses in the curriculum. In regards to programming, students need tomeet the programming requirements outlined by a
applications, multi-modal imaging, tomographic reconstruction algorithms, and machine learning applications. c American Society for Engineering Education, 2020 Introduction of Software Engineering Concepts for Electrical and Computer Engineering Students and Application to Senior Projects Danielle M. Fredette, Nathan T. Jessurun Cedarville UniversityAbstractThis paper describes results of incorporating basic software engineering principles into the seniordesign curriculum for electrical and computer engineering students who have no prior softwareengineering exposure. Software engineering concepts are
c American Society for Engineering Education, 2014 Paper ID #9217(STEM). Ms. Alexander is a chemist, biomedical engineer, and educator with over 32 years of experiencein STEM research and K-20 educational programs for students, parents, teachers, and professionals. Sheholds a BS in Chemistry from Stevens Institute of Technology and a Master’s of Science in Bio-medicalEngineering from NJIT. She is currently is a Candidate for a Ph.D. in Education with a specialization in In-structional and Curriculum Leadership at Northcentral University in Prescott Valley, AZ. Her dissertationis on first-year college students’ computational fluency, self
P.E., University of Virginia Ronald Williams is a faculty member in the Department of Electrical and Computer Engineering at the University of Virginia. His teaching responsibilities have typically been in the area of digital systems, embedded computing, and computer design. He has recently been actively involved in the redesign of the undergraduate electrical engineering curriculum. His research interests have focused on embedded computing for control and signal processing.Prof. Robert M. Weikle, University of Virginia Robert M. Weikle, II received a B.S. degree in electrical engineering and physics from Rice University, Houston, Tex., in 1986 and M.S. and Ph.D. degrees in electrical engineering from the
is suitable for both scientific andeducational work. Mathematica is able to show the results of internal computations in symbolicform. This enables us to explore topics in depth, and to vary parameters to see the effect of thesechanges. The solutions can be visualized in a number of ways, thereby elucidating the conceptunder study. Especially the dynamic features in the latest versions have revolutionized visualizationof evolving processes.In this paper I will discuss some examples of how the computer program can help to understandproblems in the hydrodynamics curriculum, both in the bachelor’s and master’s program. The firstexample studies turbulent and laminar flow in a circular pipe. A heat exchanger is to transport agiven amount of water
computer science courses since 1992. His areas of expertise are computer architecture, networking, database systems, computing platforms and languages. As the director of Infrastructure, Telecommunications, and Networking (ITNet), and later as the Chief Technol- ogy Officer, at UT Brownsville, he implemented state of the art networking using campus wide fiber ring with redundant links to facilities. He established diskless computer labs to provide uniform computing platform across campus, and modernized classrooms to make them congenial to online learning. He was the PI on NSF funded BCEIL (Beowulf-based Curriculum Enrichment Integrated Laboratory) grant and Co-PI on NSF funded MCALL (Multimedia based Computer Assisted
70 Distance Learning and Cognitive Load Theory to Enhance Computer Programming for Mechanical Engineers: Qualitative Assessment Thomas J. Impelluso, Ph.D. Associate Professor Mechanical Engineering San Diego State University ABSTRACTA computer programming class for students of mechanical engineering was re-designed withregard to both content and