tamara@purdue.edu sguzey@purdue.edu Project Website: http://engrteams.org Project Description The Engineering to Transform the Education of Analysis, Measurement, & Science (EngrTEAMS) project is an engineering, design-based approach to teacher professional development that has 50 teachers per year designing curricular units for science topic areas related to the Next Generation Science Standards. The project includes summer professional development and curriculum writing workshops, paired with coaching, to allow teams of teachers to design engineering curricular units focused on science concepts, meaningful data analysis, and measurement. Each unit goes through an extensive design research
paper is based on the recommendations made by the National Science Foundation andControl Systems Society of IEEE. In light of those recommendations and issues discussed at aNSF/CSS workshop, the author raises the question of appropriate contents for a control systemcourse as taught in a typical first course ET program. Presently, the majority of electrical, somemechanical and almost all electromechanical engineering technology programs have a course intheir curriculum called control systems. Even though they carry the same name, most often theircontents are drastically different. In many programs the focus of the course is on the applicationof typical classical control. There are some programs where the whole course is aboutapplication and
instructional course has been developed as a training program primarily targetingHigher Education Institution (HEI) engineering educators to equip participants with the skillsnecessary to design and deliver high quality multi-campus programs. This course is designedwith the ongoing trend toward technology-driven education in mind [11].The training course is modular, providing unique completion pathways for course instructors,course designers, TAs, and program directors. Any course attendee may complete all moduleswith very little redundancy, resulting in approximately 12 hours of material including learningactivities. Modules for the curriculum were chosen based on author experiences and literaturereview on MCI. The objective of the course is to build
in computersystems technology and an associate degree option in web development technology. Thesedegree options were made up of a roughly equal number of credits from computer courses andnon-computer courses. The computer courses were three credit hours each and designed to offera balance between theory and application. Several of the networking and server administrationcourses included a lab section. In addition, each degree had a three credit hour capstone projectcourse in the last semester of the curriculum. Bachelor degree students had a capstone projectcourse at both the end of their sophomore and senior years.Although all of the degree options required a foundation of courses in programming, networking,web development and database
Paper ID #13619Hands On Standards STEM in Action: Solar House Design Challenge (Cur-riculum Exchange)Mrs. Elizabeth Gajdzik, Purdue University, West Lafayette Elizabeth Gajdzik is the Assistant Director of the Institute for Pre-College Engineering (INSPIRE) in the School of Engineering Education at Purdue University. She received both her B.S. in Interdisciplinary Studies with a specialization in mathematics education and M.S.Ed. in Curriculum and Instruction with an emphasis in mathematics education from Baylor University. Prior to her work at INSPIRE, Elizabeth was a district curriculum math specialist in San Antonio, TX
thatwe support the development of new high school curricula as a way to motivate students towardspursuing education and careers in nanotechnology. Recent advances in nanomaterials processing,particularly 2-dimensional (2D) nanomaterials synthesis,1 present the opportunity to integratenanotechnology curriculum into high schools in safe and relatively inexpensive manners.In our work, we present an Advanced Placement (AP)Chemistry Inquiry Laboratory (CIL) targeting 11th and 12thgrade high school students. The CIL is being implementedat Centennial High School in Boise, Idaho and inpartnership with Micron Technology, Hewlett Packard,and Boise State University. The CIL is aligned to NationalCollege Board requirements for AP Chemistry courses aswell as
followings questionsare being investigated: • Can an online educational hypermedia user’s position on a Wholist-Analytic cognitive style dimension be determined using machine learning (i.e., artificial neural networks) and click-stream analysis of their hypermedia choices and browsing patterns? • Can an online educational hypermedia user’s position on a Verbalizer-Imager cognitive style dimension be determined using machine learning (i.e., artificial neural networks) and click-stream analysis of their hypermedia choices and browsing patterns? • Can a comprehensive and complete design framework based on machine learning be developed for determining preferred cognitive styles of online educational hypermedia
for the DAMA Foundation. Gil specializes in developing business and application solutions, metadata (business and technical) to support enterprise application integration, knowledge management, and data warehousing. He has developed and teaches courses in Enterprise Architecture, Systems Analysis and Design, System Architecture, Data Management and SQL. He consults in both the public and private industry sectors. Gil holds Master degrees in Management and Management Science. Page 11.1200.1© American Society for Engineering Education, 2006 Teaching Business Process Improvements – Making the
. www.NICERC.orgPh.D. Candidate, Engineering Education Director of Curricula, NICERC CIC_NICERCPurdue University, West Lafayette kcorbett@cyberinnovationcenter.orgjmondisa@purdue.edu (318) 257-2319 CIC_NICERC NICERCCourse SummaryThe Apply Earthquakes curriculum module is part of STEM: Explore, Discover, Apply (EDA), a three course elective sequence for middle school grades6-8; each module typically lasts three weeks. In
;afk12@psu.eduCurriculum summary: High school students are often overwhelmed by the proliferation of specialties available to themin the realm of engineering. It is often the approach of the instructor to lecture to the studentsdirectly, rather than allowing them to explore the areas for themselves. To meet this need, anactivity was developed to expose students to the various disciplines of engineering in aninnovative and engaging way. Students in a high school level introduction to engineering classwere given giant whiteboards headed with the various disciplines and allowed a short interval inwhich to write words or phrases with which they associated the discipline. Following theactivity, the words were collected to form word clouds, which were
Ken Burbank is an Associate Professor and Director of Electrical Engineering at Western Carolina University. Dr. Burbank is active with IEEE, SME, and TAC of ABET, and strives to bring practical engineering activities into the classroom. His current project is the development of a photonics program within the Electrical Engineering curriculum. Page 11.41.1© American Society for Engineering Education, 2006 A Digital Logic Based Experimental Design of a DSP/Communication System for ECET StudentsAbstractThis article discusses the results of a senior design
systems, computer-based library science, computerengineering, software engineering, and information technology. Additionally, there arenewly-emerging programs in disciplines that are heavily computer-dependent, such asanimation, industrial design, bioinformatics, and others.The purpose of this paper is to present the history and current status of the five corecomputing academic disciplines as described in the Computing Curriculum document:computer science, information systems, computer engineering, software engineering, andinformation technology. The information summarized includes the number of programsin existence, the development of a standardized curriculum for each, and the developmentand implementation of accreditation standards for
First-Year ECET StudentsAbstract: This paper discusses a software-defined radio project which was built by first-yearstudents in an introductory circuit-analysis course. The project was intended to engage andmotivate students by providing a real-world application to which they would connect the abstractconcepts of circuit analysis. The effort was a success.AcknowledgementsThis work was supported by an Indiana University-Purdue University Fort Wayne SummerInstructional Development Grant. I would like to thank PCB Express, who donated the printedcircuit boards, and the following companies who supplied parts as donations or samples: Molex,Inc., Mouser Electronics, Kemet Corp., Linear Technology Corp., and Analog Devices, Inc.IntroductionMost of us
. Research and Development in Curriculum and Instruc- tion which received an outstanding research publication award from the Division for the Professions of the American educational Research Association. He is also author of The Assessment of Learning in Engi- neering Education: Practice and Policy; The Human Side of Engineering, and Empowering Professional Teaching in EngineeringProf. Arnold Neville Pears, Royal Institute of Technology (KTH) Arnold Pears received his BSc(Hons) in 1986 and PhD in 1994, both from La Trobe University, Mel- bourne, Australia. He is currently Professor and Chair of the Department of Learning in Engineering Sciences at the KTH Royal Institute of Technology, Sweden. Previous positions as
microelectronics manufacturing techniques. Therefore, fewer technicians are needed to maintain and repair the products out in the field. These prior statements are basically true however the throw-away tag applies more to consumer electronics products then anything else. Although, try to convince someone that owns a large screen HDTV that develops a malfunction after the warrantee has expired that the throw-away term applies to their TV! • The present ET faculty is basically an aging faculty that was hired years ago during the time when enrollments were peaking. As a group, they are not as up-to-date as they could be and as a consequence enrollment suffers to varying degrees as the curriculum starts to fall
through a University-Level Student CompetitionAbstractWhile robotics competitions exist at the K–12 and university levels, these are notably based ongames with a fixed set of rules. We believe that existing competitive games do not suffice, andwhat is needed is a competition that emphasizes the engineering of solutions to open-ended real-world problems inviting creativity and innovation. Therefore, we developed a RoboticsInnovations Competition and Conference (RICC) to build an intercollegiate and multi-disciplinary community of students, faculty, and industry promoting the education ofentrepreneurially-oriented robotics engineering students. The first regional competition andconference was held at Worcester Polytechnic
Paper ID #12242Engineering a Spacesuit using Heat Transfer Knowledge (Curriculum Ex-change)Prof. Greg Bartus, Stevens Institute of Technology Greg is an Adjunct Teaching Professor and Senior Curriculum and Professional Development Specialist in STEM Education for the Center for Innovation in Engineering and Science Education at Stevens Insti- tute of Technology. Greg has an MAT and BS in Agricultural and Biological Engineering from Cornell University. Page 26.610.1 c American Society for
university began in mid-January 2020. At this point, themakerspace and faculty development programs were operating as they had in previous semesters.This included courses introducing projects that would use the makerspace, monthly facultylunches in the space in which curriculum design challenges, successes, and opportunities werediscussed, and one-on-one curriculum support sessions with the makerspace staff and thecurriculum support team. During this time, over 4,000 students and thirty-two courses within thecollege of engineering were using the makerspace to support student learning in their classes. This momentum came to a grinding halt on Friday, March 13, 2020 when the universityannounced all of its classes would transition to online
college and university,and capacity of the unit to offer the program. If a proposed new program varies significantlyfrom existing programs, state approval is required in addition to university approval.The Master of Engineering programs in the various disciplines have a consistent structure andshare a certain number of courses (the professional skills courses, the electives and the capstone).This commonality facilitates the creation of new programs, in particular interdisciplinaryprograms, without requiring state-level approval.New Program CurriculumThe curriculum for the new program in artificial intelligence was developed as a collaborativeeffort between faculty in computer science, aerospace engineering and mechanical engineering.The AI
anongoing basis. Course content is developed based upon the following essential rubrics: Page 12.889.4 - more - • The course-design approach is competency-/outcome-based • Classroom instruction is for clarification • The laboratory is to expand on classroom instruction • A final capstone project course integrates all the components Many sources for initiation ESD Curriculum-Change Process of change, 2+ faculty
Systems class earlier in their student career.The team members, however, had no negative personality issues within the group or with thementors and were motivated.Project IntroductionIn addition to student growth and development, a key objective of the project was to create afascinating but recognizable device that could be used to help recruit engineers. The plan was toexhibit a functional R2D2 during Major’s Night, where the academic majors market theirdiscipline to freshmen and undeclared sophomores, and possibly even at home football games.The full-sized, metal replica envisioned by the team was to be a far cry from the 15” plasticmodel with simple voice recognition which can be purchased for slightly over $100. The goalwas to produce a
Information Systems, Hi-roshima City University, Japan. He joined Zayed University, UAE, in August 2000. Currently, he is a Professor of Information Systems, Zayed University, UAE. His research interests include Neuro-fuzzy modeling and control, Signal processing, and IS curriculum design and development. Page 11.787.1© American Society for Engineering Education, 2006 Integrating IT Certifications in Networking Courses: Cisco CCNA Versus CompTIA Network+AbstractCurrently, industry and government need a workforce with the latest technical skills in order toremain globally competitive
-the-shelf components to unique environments,including warehouses, factories, retail stores, hospitals and libraries. These technicians will needthe skills traditionally learned in the ECET curriculum, (such as circuits, power, and computernetworking) with the addition of the specifics RFID tags and integrators.Radio Frequency Identification is a technology where tags containing radio frequency (RF)circuitry are attached to items. These tags are remotely interrogated by readers that use radiowaves to activate and collect information from the tags. Since every tag is unique, thistechnology is being used in a wide variety of applications: keeping inventory in retail operations,keeping electronic pedigrees of drugs to meet Federal Drug
,Sacramento’s (Sacramento State) with the Hornet Leadership Scholars’ Curriculum. TheHornet Leadership Program (HLP), launched in 2018, addresses some of our potential gapsin engineering leadership education. The program includes instruction on principles ofleadership, seminars by industry leaders, leadership practice and reflection, discussions,one-on-one mentoring, leadership development in student organizations, and communityactivities. The program also reinforces the educational process by creating opportunities forparticipants to be coach/mentors for less experienced students as they progress in theprogram. The HLP allows students to enhance their engineering leadership training throughdirect application of leadership principles. As we grow the
Professor Emeritus, retired in December 2000 after about 35 years of service at Old Dominion University, of which he served as a department chair for 27 years. He holds a B. S. degree from the University of South Carolina and M. S. and Ph.D. degrees from North Carolina State University, all in Electrical Engineering. He is a registered Professional Engineer and author or co-author of about 20 textbooks. Since retiring, he has continued to write, teach part-time, work with the Navy College program, and has developed two asynchronous courses for that program. Page 11.748.1© American Society for
coursework and grades in theengineering program and the coursework and associated grades in the MBA program.Issues to ConsiderThere are a variety of issues and characteristics that must be dealt with in order to have asuccessful program. Many were identified during the program development but others onlybecame apparent during program implementation. These are discussed below.Curriculum Development – The obvious challenge is developing a plan that allows students towork ahead of the traditional schedule without requiring additional courses to be taught orsignificant changes to the traditional curriculum. A related consideration is to construct thecurricula of the various disciplines (Electrical, Mechanical, etc.) such that the timing of the
11.57.1© American Society for Engineering Education, 2006 A Jitter Education: An Introduction to Timing Jitter for the FreshmanAbstractThis is the second in a planned series of papers addressing jitter analysis education in theElectrical Engineering Technology (EET) curriculum. The first paper, “A Jitter Education:Finding a Place for Jitter Analysis in the EET Curriculum,” described the basic types of jitter andthe underlying causes, jitter measurements and displays (two related but distinctly differenttopics), and proposed how to incorporate jitter analysis into a four-year EET curriculum. Thefocus of this installment is how to introduce the subject of timing jitter to a first-year EETstudent.The
facilitators who were eager for new curriculummaterials. Several national organizations that offer technical training in various areas of expertisealso joined the collaboration, including the National Research Mentor Network (NRMN), theCenter for the Improvement of Mentored Experiences in Research (CIMER), and theCarpentries. Their contributions included experience managing large repositories of curriculaand ensuring quality control while allowing materials to be updated regularly.During the first year of this collaboration, new curriculum was developed at MSU and pilottested by facilitators from Tau Beta Pi (TBP). Several of the collaborating training programshelped to advertise or host these pilot tests. While the project is funded for another two
different research methodologies and be able to communicate effectively with their peers. • Establish positive team work attitude: Students should develop effective team work and leadership skills while working on team projects.Class Model: Accommodating the Needs of Non-traditional StudentsMany non-traditional students start their education at community colleges due to economicalconstrains, but also because community colleges provide a more flexible curriculum and courseschedule for them. We have constructed our program to follow a similar pattern. Our goal is tobe mindful of our student body, many of whom have full time jobs and family obligations. Ourclasses are scheduled during the evening hours and the weekends to allow
history of engineering distance learningat the University of Florida, and a one year snapshot of enrollments and students. The core ofthe work goes through UF EDGE basic model used to optimize resources and time including: thecombined distance and campus classroom structure, infrastructure for online delivery, coursemanagement system and online optimization tools, curriculum for online delivery, and thedistance exam proctoring process.1. Introduction: UF EDGE History, Departments, and Students.The University of Florida began offering on-site distance learning instruction at select Floridacompanies in the 1950’s. In 1964, the UF College of Engineering launched the first livegraduate engineering courses broadcast from UF with real time two-way