Paper ID #7318Developing a cross-disciplinary curriculum for the integration of engineeringand design in elementary educationMs. Emily Ann Marasco, Schulich School of Engineering, University of Calgary Emily Marasco is a graduate student in electrical engineering at the Schulich School of Engineering, Calgary, Canada. She received an undergraduate degree in computer engineering and a minor in music from the University of Calgary in 2011. Marasco is a registed Engineer-In-Training with the Association of Professional Engineers and Geoscientists of Alberta, and is a member of both ASEE and IEEE.Prof. Laleh Behjat, University of
Annual Conference & Exposition Copyright 2004, American Society for Engineering Education”relating to structural as well as foundation systems, applied computer methods, andawareness of integrated applications of the project are included in the curriculum. In fact,the current curriculum is so robust and relevant that SDCET currently has a 100% jobplacement for all graduates for the last seven years. Graduates can look forward toserving in various positions of leadership and responsibility dealing with structural designand construction of building, bridges, or other similar public or commercial private sectorprojects. Graduates may also see opportunities working for government agenciesincluding construction of state or
of communication skills for engineers; studies doneby the Department of Electrical and Computer Engineering (ECE) at the University of Arizonashow that engineering firms, as well as ECE graduates, rank writing ability as the most importantskill in determining engineers’ success, even above the much more obvious technical skills thatare the focus of much engineering education. In fact, results cited in a Report on Surveys ofOpinions by Engineering Deans and Employers of Engineering Graduates on the FirstProfessional Degree, indicate that over sixty percent of the respondents ranked bettercommunications as the #1 priority for curriculum revision [1].Yet it is difficult for engineering schools to stress the importance of student writing to
1 Session 3233 Curriculum Integration of Engineering Technology Courses with the Solar Car Project at Middle Tennessee State University B. S. Sridhara Middle Tennessee State University (MTSU) Abstract The US Department of Energy (DOE) organizes a solar car race called Sunrayce,once in every two years. The race is nationally sponsored by corporations such as GMand EDS. It is open for all colleges and universities in North America. As facultyadvisor for the solar car team at
Session 1526Micro-Controllers in the Biological and Agricultural Engineering Curriculum at The University of Georgia Takoi K. Hamrita University of GeorgiaAbstractThis paper is to report on a NSF sponsored project aimed at implementing a new pedagogicalapproach for teaching embedded systems to engineering students who do not necessarily have anelectrical/electronics background. In particular, we will present two microcontroller coursesdeveloped at the University of Georgia for Biological and Agricultural Engineering students.Educational
Paper ID #47064BOARD #121: How Research Based Partnerships Create Meaningful WorkforceDevelopment Curriculum Work In ProgressDr. Todd R Hamrick, West Virginia University Dr. Todd Hamrick, Ph.D. is aTeaching Professor in the Fundamentals of Engineering Program at West Virginia University Statler College of Engineering and Mineral Resources, a position he has held since 2011. ©American Society for Engineering Education, 2025How Research Based Partnerships Create Meaningful Workforce DevelopmentCurriculum Work In ProgressAbstractThis research strives to identify and address needs of industry by partnering with
Session 2632 Experiences in the Integration of Digital Signal and Image Processing Research into the Undergraduate Electrical Engineering Curriculum* Richard R. Schultz University of North Dakota rschultz@nyquist.ee.und.nodak.edu Abstract Through the integration of research into the undergraduate electrical and computer engineeringcurriculum, students are invited to think abstractly and to stimulate their innate creativity. This paperdiscusses some of the successes and challenges
Session 1526 Development of a Curriculum for Mechanical Engineering Based upon Intelligent Systems and Automation S. Batill, S. Skaar, R. Nelson, B. Goodwine, J. Mason, and M. Sen University of Notre DameAbstractRealizing the need for mechanical engineering programs to adapt to an ever-diversifyingcompetitive world, the University of Notre Dame is developing a new curriculum that includesfocused educational experiences. This focus is based upon the opportunities provided by thesynergism between traditional discipline elements and embedded computing in all forms ofmechanical
modeling using Simulink.Another research incorporating the use of multimedia tools into a reverse engineeringcourse has been presented by Madara Ogot3. The main goal of this study was to usemultimedia initiative for the students to learn how to use main tools, and use them inother academic activities beyond the reverse engineering class. Since, a classicmechanical engineering curriculum may not offer instructions of the use of multimediatools in the areas of computer illustration, animation, and image manipulation, thisexperience increased interest of the major students. Besides, instruction on the use ofthese tools was incorporated into a mechanical engineering course at Ruther Universitywhere it was planned to send out follow-up surveys at the
, Purdue University, USA and Technical University of Berlin,Germany. He is a fellow of the American Society for Engineering Education, a fellow of the American Society of Mechanical Engineers, a fel- low of the Institution of Engineers (India), and a fellow of the Acoustical Society of India. He is the editor-in-chief of the Journal of STEM Education: Innovations and Research.Mr. John Timothy Gill, Lee-Scott Academy John Gill is a physics and chemistry teacher at Lee-Scott Academy in Auburn, AL. He is pursuing a Master of Art in Teaching Secondary Science at the University of West Alabama, and has bachelor’s degrees in chemistry and computer science from Columbus State University. Prior to teaching, Mr. Gill spent 15
for Engineering Students 3 CHEM 117 General Chemistry for Engineering Students Laboratory 1 ENGL 103 Introduction to Rhetoric & Composition 3 ENGR 102 Engineering Lab I - Computation 2 MATH 151 Engineering Mathematics I 4 UCC University Core Curriculum 3 Spring Total 15 ENGR 216 Engineering Lab II - Mechanics 2 MATH 152 Engineering Mathematics II
curriculum. Finally, demonstration modules (DM) are being developed to provide outreach andfreshmen and sophomore summer research experiences. All of the modules are self-contained, i.e., theywill have adequate tutorial exposition, prerequisite reading assignments, a well defined task, and alaboratory. Each CRM has six lectures and one computer research laboratory. A capstone final projectwill also be a part of the course. The four research laboratory exercises are being developed based on ouraward winning Java-DSP software technology [JDSP] [Spa04]. Summer Freshman and DEMO MODULE (DM) Sophomore Research
students were also given a survey to assess their confidence in their choice of engineeringmajor and in their preparation for and ability in certain aspects related to an engineeringcurriculum. This paper examines the impact of spatial visualization skills as measured by thePSVT:R on the students’ confidence levels at the beginning and at the end of their first year in anengineering curriculum. Spatial skills of students selecting different majors are compared todetermine if spatial skills may be a factor in a person’s choice of major (e.g., do mostmechanical engineering majors have highly developed spatial visualization skills while morecomputer engineering majors have less developed spatial visualization skills?). These analysesare also
hydraulics) course and reform the curriculum structure. 2. Develop a multipurpose laboratory for application practices necessary in the courses. 3. Develop computer-assisted problem-solving tools for the course. 4. Develop teaching methodology for the course to foster inductive learning through applications, problem solving and theory. 5. Document measures of learning effectiveness to ensure continuous improvement in student learning in long run.Student learning in engineering technology programsUpon teaching both in engineering and engineering technology programs, one maynotice a fundamental shift in student learning mechanisms between the two areas. In mostengineering programs, the theoretical
AC 2009-649: AN ENERGY-HARVESTING CURRICULUM DEVELOPED ANDOFFERED AT THE ILLINOIS INSTITUTE OF TECHNOLOGYOmer Onar, Illinois Institute of Technology (IEEE S’05) received his B.Sc. and M.Sc. degrees in electrical engineering from Yildiz Technical University, Turkey, in 2004 and 2006 respectively. He was a research scholar in Electrical and Computer Engineering Department at the University of South Alabama (USA) from August 2005 to August 2006 and involved US Department of Energy projects based on power management for fuel cell applications. Currently, he is a doctoral research assistant at the Energy Harvesting and Renewable Energies Laboratory (EHREL) at the Electric Power and Power Electronics Center
Paper ID #15891User-Based Collaborative Filtering Recommender Systems Approach in In-dustrial Engineering Curriculum Design and Review ProcessDr. Ebisa Wollega, Colorado State University - Pueblo Ebisa D. Wollega, Ph.D. is an Assistant Professor of Engineering at Colorado State University-Pueblo. He received his Ph.D. degree in industrial engineering from the University of Oklahoma. His research interest areas include stochastic systems modeling and optimization, big data analytics, large scale optimization algorithms, and engineering education. His email is ebisa.wollega@csupueblo.edu and his web page is http
basic mathematics, science, and technology topics in the curriculum areintegrated among the eleven different courses in the Foundations course sequence. Table IVattempts to separate the content areas covered in the Foundations sequence into traditionaldisciplinary headings in order to better describe the overall course sequence content. Table IV: Foundations Course Sequence Content Areas CONTENT AREA EQUIVALENT CREDITS Biology 3 Business/Economics 3 Chemistry 3 Computer Science 3
Session 1449 Integrating Instruction in Geographic Information Systems with a Civil Engineering Technology Curriculum William H. Sprinsky Pennsylvania College of TechnologyAbstractAt the Pennsylvania College of Technology, we feel that the tools of project design andmanagement, such as Geographic Information Systems (GIS), should be taught along with themore usual subjects in a Civil Engineering Technology curriculum. Such a tool is an applicationof some very basic concepts to design and construction. Students learn the use and constructionof coordinated
ETD 545 Industry Informed Curriculum Development in Engineering Technology: Solar PV Planning and Installation Mohsen Azizi New Jersey Institute of TechnologyIntroductionThe power generation industry has been gradually switching from traditional fossil generators torenewable energy systems (RESs), which are more efficient and environmentally friendly, in thepast two decades. This trend has given rise to the job market demand for a new generation ofengineers and technicians from science, technology, engineering, and mathematics (STEM)fields, who are
have graduate degrees focused onrobotics include Carnegie Mellon University, MIT, UPENN, UCLA, WPI and the South DakotaSchool of Mines and Technology (SDSMT). Academic programs in the School of Technology atthe Michigan Technological University are designed to prepare technical and/or management-oriented professionals for employment in industry, education, government, and business. TheSchool of Technology’s educational programs include significant hands-on laboratorycomponents to prepare students for practical design and production work. To effectively meet thenext generation’s workforce needs, the electrical and computer engineering technologyundergraduate curriculum must be up-to-date and relevant6.Robotics Automation Training ProgramThe
recent addition to the Department of Engineering, which offersB.S. degrees in civil, computer, electrical, and mechanical engineering.The paper presents the process and challenges of establishing a new Civil Engineeringcurriculum and layout the techniques used in addressing these challenges. The paper addressesthree issues: developing a curriculum that meets the regional needs; the Purdue Universityrequirements, and 2007 ABET criteria. The challenge is to achieve these goals under severalconstraints including limited resources; accepting students to new program with differentbackground such as transfer students from other institutions and students for technologyprograms, and the process of offering new core courses for advanced students in the
help students understand this tragedy, the role engineers play insociety, and to increase their interest in civil engineering, this particular curriculum wasdeveloped.The design of the curriculum is theoretically aligned with constructivism. Curriculum designfrom a constructivist perspective focuses on the social construction of learning and enablesstudents to learn through collaboration8. The bridge building activities allowed students activelyengaged in their knowledge construction as they learned the concepts through hands-onactivities. Demonstrations, computer simulations, and videos were employed to increasestudents’ engagement. In addition, all students were asked to keep journals, written as blogs, toreflect on their learning. The
integration of product/tool design andmanufacturing to which manufacturing engineering technology students are not commonlyexposed[6][7]. Basic FEA concepts and machining process modeling with FEA were addedinto this upper level manufacturing course and enabled students to make the connectionamong physics, static/dynamics, and material courses in the curriculum in an integratedlearning environment.Knowledge on new technologies including FEA and DFM were covered in this course.Projects utilizing emerging technologies such as cutting process modeling with FEA, CNC(computer numerical control) verification with VeriCut® software helped students “recognizetheir need for an ability to engage in lifelong learning”, which is emphasized in AccreditationBoard
2006-679: CREATING AN INNOVATION CONTINUUM IN THE ENGINEERINGCURRICULUM: EPICS AND THE EPICS ENTREPRENEURSHIP INITIATIVEEdward Coyle, Purdue University Edward J. Coyle received his BSEE degree from the University of Delaware in 1978, and Master's and Ph.D. degrees in Electrical Engineering and Computer Science from Princeton University in 1980 and 1982. Since 1982, he has been with Purdue University, where he is currently Professor of Electrical and Computer Engineering, Co-Director of the Center for Wireless Systems and Applications (CWSA), and Director of the EPICS Entrepreneurship Initiative (EEI). From 2000 through 2004 he served Purdue as Assistant Vice Provost for Research in Computing
about seat time: Blending, flipping, andefficiency in active learning classrooms,” Computers & Education, 78:pp. 227-236, 2014.[3]S. DeLozier and M. Rhodes, “Flipped Classrooms: a Review of Key Ideas andRecommendations for Practice,” Educational Psychology Review, 29: pp. 141-151, 2017.[4] M. Albert and B. Beatty, “Flipping the Classroom Applications to Curriculum Redesign foran Introduction to Management Course: Impact on Grades,” Journal of Education For Business,89: pp. 419–424, 2014.[5] J. Nouri, “The flipped classroom: for active, effective and increased learing – especially forlow achievers,” International Journal of Educational Technology in Higher Education, 13:33,2016.[6] J. Pickering and D. Roberts, “Flipped Classroom or an Active
Curriculum with Coherent ThemeAbstractA design engineer uses math to solve real-world problems. To that end, traditional mechanicalengineering curricula teach modeling and analysis skills in a set of specific, often decades-old,courses. This regiment of courses give the student the skill set needed to be an engineer, but is alltoo often insufficient at teaching that student how to use that skill set. That is, the student is ill-prepared to bring those multidisciplinary skills together to solve problems, to actually be anengineer.A new curriculum strategy is proposed in which at least one course each semester reflects theconcepts of model-based design. Therefore, the engineering student becomes progressivelymature in applying his or her
actualequipment they would be working with in industry. A few years ago when approval was grantedfor the construction of a new Computing & Engineering Building, faculty members of theEngineering & Design department at Eastern Washington University devoted their efforts toworking with the architectural firm and modifying the building’s design to create access to thetechnical equipment located within the building. Additional instrumentation was also requested Page 12.1156.2that would provide the complete picture of the daily operation of the building. Examples ofthese modifications include increased working area around flow handlers to allow student
Development with QFD”, DRM Associates, Palos Verdes CA 7. Kenneth Crow, 2000, “Performing QFD Step by Step”, DRM Associates, Palos Verdes CA Page 22.909.18 8. N.A. Jnanesh & C.K Hebbar, 2008, “Use of Quality Function Deployment Analysis in Curriculum Development of Engineering Education and Models for Curriculum Design and Delivery”, Proceedings of the World Congress on Engineering and Computer Science 2008,WCECS 2008, October 22 - 24, 2008, San Francisco, USA9. Patricia Brackin, 2002, “Assessing Engineering Education: An Industrial Analogy”, International Journal of Engineering Education, Vol. 18, No. 2, pp
ETD 415 Modifying Engineering Technology Curriculum to Adapt to the Demands of Industry 4.0 Gary Mullett Springfield Technical Community CollegeAbstractThe world is poised to undergo a rapid transition to the next generation of the industrialrevolution, commonly known as Industry 4.0 or the Industrial Internet of Things (IIoT). Thereare several developing technology drivers of this ongoing industrial progression that areinterrelated and will require a rethinking of how we educate the technologists of the future. Theuse of new smart and
teaching curriculum includes all the well-known and standardtechniques for estimation (e.g., Top-Down, Parametric, Three-Point) to execution to closing. Thestandard method that is most popular today is the Project Management Book of Knowledge(PMBOK; first published in 1996) process and the use of computer-aided PM tools (e.g., MSProject, Jira, SmartSheet, etc.). This set of tools have been around for at least a generation. Forproject managers, getting and maintaining a PMI certification is considered key to theirprofessional standing. All tools for estimation, budgeting (cost), scheduling (time), and projecttracking are well built into these PM processes and computer-aided tools. The technology used inthe PM curriculum and professional practice