] undergraduatemajor.” The same survey also indicates that more than 75% of those surveyed say they wantmore emphasis on five key areas including: critical thinking, complex problem solving, writtenand oral communication, and applied knowledge in real-world settings.As part of the larger goal to better prepare students for career success and personal development,improving students’ critical thinking ability has been a significant initiative of the University ofHartford’s strategic plan since 2014. In the fall semester of 2017, we implemented a coordinatedlarge-scale project that aimed to promote students’ critical thinking through a series of newly-designed troubleshooting exercises embedded in all fundamental DC electric circuits labs forengineering
Facilities Planning and Management, Introduction to Facilities Engineering Sys- tems, Financial Aspects of Facilities Management and Construction Cost and Bidding. He is a graduate of Purdue School of Engineering and Technology receiving degrees in Construction Technology, Archi- tectural Technology and a Masters in Facility Management. His field experience includes residential and light commercial construction. He has been an architectural designer as well as superintendent for single and multi-family residential construction projects. Mr. Ray worked as an engineering design manager in the Building Components Manufacturing Industry for over fifteen years.Mr. James W. White, Indiana University-Purdue University of
. Page 23.786.1 c American Society for Engineering Education, 2013 INTEGRATION OF GREEN CONCEPTS INTO TECHNOLOGY CURRICULUM FOR WORK FORCE DEVELOPMENT IN THE RENEWABLE ENERGY INDUSTRIESAbstractWith green industries poised for rapid growth, universities and workforce development centersare striving to develop a workforce that is well trained in renewable energy technologies. Thispaper describes the latest advances in an educational project, sponsored by the Texas WorkforceCommission, to integrate renewable energy technology principles into the technical curriculum.This project has engaged faculty from technology programs in the College of
Cullen note the need to incorporate more self-learning into thecurriculum 8. As part of an industry sponsored product lifecycle management course, Chang andMiller focus on problem solving, project management, communication, and teamwork 9. Earnestnotes that the efficacy of the educational program is dependent on curriculum development andhighlights the need to have clarity among stakeholders who include: curriculum developers,students, teachers, administrators, and industry 10. Gadalla also notes the need of curriculumdevelopers to consult industry 11. Kuo also recognizes the importance of relevance to industryand notes the need for continuous improvement in curricula 12. Again returning to the frameworkof Gannod et al., a curriculum can be
-cells and DC machines, three-phase AC machines, Induction machines,Regenerative braking, Permanent Magnet Machines and Switched Reluctance Machines. Itstudies electric drive components, the EV transmission configuration and EV motor sizing.Students are required to complete a design project relative to EV and/or HEV design.Bio-technology and Bio-engineering PillarMeasurement and Analysis: Introduces students to mechanical measurements, instrumentationand experiment data. The principles developed in class are applied in the laboratory andtechnical report writing is required. Team based Laboratory experiments utilize statisticaltechniques in mechanical measurements of temperature pressure, force, deformation, strain, androtational
electrical and computerengineering. The rapid changes that are taking place in the engineering field, some of thetechniques the students learned or exposed to might have changed since the time theyentered the program to the time of graduation.Thus a capstone course was necessary to bring the senior students up to date in thevarious fields of electrical and computer engineering and to provide guidance tosuccessfully complete their senior design project. The students take courses based on theplan of study from the freshman year to the senior year when they are required tocomplete a project for graduation. Also the students may not be familiar with sub field ofelectrical engineering like power electronics if they have taken the electives
real-worldproblems10,37 is an important approach practiced by many educators. The Particular GeneralParticular (PGP) strategy used by Mosteller22 and Romero26 can be very effective. Activeparticipation by the students during the teaching and learning of statistics9 is a good method touse. Using simulation2,8,20,27 instead of theoretical derivation also works better for engineeringtechnology students. Using Excel to perform basic statistical analysis is a very attractiveoption6,14. Project-based learning16, 23,30 is another method used widely in engineering technology Page 14.1153.3programs, since laboratory4,17, 18,24 is one of the main
met,therefore meeting the ABET criteria as well. One way of doing this is incorporating theassessment into various (or all) courses in the program, a process tested and introducedby the authors in [1]. In that paper a holistic approach was used to meet ABET criteriabased on course assessment. However, the details on how to exactly incorporateassessment into each course were omitted. In this paper, we describe the processfollowed to generate assessment data from a Digital Circuits introductory course. Thesedata connects course objectives into program outcomes based on the approach introducedin [1]. The paper shows how traditional student work, such as homework, exams, labs,quizzes, and projects, is used systematically to provide a solid
et al.[8] proposed and implemented an augmented reality-based drawing verification system. Thesystem utilizes both marker and markerless recognition methods for efficient operation. Theirstudy suggested that the system can improve the understanding of drawings and will be moreuseful for railway construction which consists of a combination of heterogeneous drawings.Also, Serdar [9] developed mixed reality tools in an engineering drawing course. The toolsenable students to visualize geometry problems and enhance their spatial visualization skills.In this project, student exercises from the textbooks were selected for AR model development.These AR models require 3D models of the exercises and target/scan images. These images canbe either two
andtherefore provides students with a learning experience that can be transferred to real-worldindustrial robotics applications. This project is a part of a larger collaboration between MichiganTechnological University and Bay de Noc Community College which aims to develop curriculaand training materials to supplement the RobotRun software.Background & IntroductionProviding K-12 students and others in the workforce the tools necessary to easily learn roboticscan help support the goal of improving student access to STEM-related ields and careers. Therehave been many publications, initiatives, and projects which have aimed to increase roboticseducation among students. Many of these research projects are aimed at applications such asmobile or
tothe displacements of six cylinders in a Stewart motion simulator. Information of thedisplacements is then transferred through the User Datagram Protocol (UDP) to apersonal computer which has the LabVIEW software. An NI USB-6251 data acquisitiondevice is applied to interact with the LabVIEW program and the Stewart hydraulicsimulator. The approach presented in this paper to function an old Stewart hydraulicsimulator can also be applied to other simulators.1. IntroductionThe major objective of this project is to develop a prototype system which can simulatethe motion of a water craft when it is driven through different waves and obstacles. Thisphysical simulator will also facilitate a virtual and interactive environment to support forthe future
in air bag deployment, ink jet print heads, and biosensors based on nanoprobes. On thesophisticated front, Digital Light Processing (DLP) projection systems are getting popular. At theheart of every DLP projection system is an optical semiconductor known as the DLP chip, whichwas invented by Dr. Larry Hoenbeck of Texas Instruments in 1987. The DLP chip is probablythe world’s most sophisticated light switch. It contains a rectangular array of up to 2 millionhinge-mounted microscopic mirrors; each of these micro mirrors measures less than one-fifth thewidth of a human hair. When a DLP chip is coordinated with a digital video or graphic signal, alight source, and a projection lens, its mirrors can reflect a digital image onto a screen or
that the course content can be updatedin the future with new technologies as they emerge or as instructor sees a fit.The broader objective of the course is to expose students to new green technologies and electronicsindustry through an interdisciplinary approach combining team projects, individual research, case studyanalysis, and interaction with industry executives. Students taking this course will be able to □ Identify new trends/products in the electronic industry. □ Identify various electronics components regarding new technologies. □ Determine factors affecting the adoption of new technologies □ Analyze the various challenges specific to green electronics products □ Create marketing plans for new product
- entrepreneurship 1 6 -5 Project management - 1 3 -2 Overall systems perspective 1 1 0 Technical fundamentals – new ME 0 0 0 applications (bio, nano, info, multi...) Leadership 0 0 0 Experiments - laboratory procedures 0 0 0Table 2 indicates that strong attributes of BSMET graduates were computer modeling andknowledge of how devices are made and work. Major weaknesses were technical fundamentalsand oral/written communication. Moderate
- nology (IUST) in 1973, his MS in electrical engineering from Oklahoma State University in 1978, and his PhD in electrical engineering with specialization in electrical drives and power electronics from Uni- versity of Missouri-Columbia (UMC) in 1989. Dr. Moghbelli was an instructor at Isfahan University of Technology (IUT) from 1978-1984, an assistant professor at Purdue University Calumet (PUC) from 1989-1993, and an associate professor in IUT and IUST from 1989-2002. He has done several projects in the area of electrical drives, power electronics, and hybrid electric vehicles. He served as the Head of School of Railway Engineering at IUST from 2000-2002. He served as a consultant at Northern Indiana Commuter
AC 2007-2815: EFFECTIVE INSTRUCTION OF AN ONLINE ENGINEERINGCOURSERonald Uhlig, National University Dr. Ronald P. Uhlig is currently an Associate Professor in the Applied Engineering Department, School of Engineering and Technology, National University. He is the Lead Faculty for Wireless Communications, with overall responsibility for the Master of Science in Wireless Communications program. In addition, he is leading the effort to establish a multidisciplinary Educational Technology Laboratory, joint between National University and Project Inkwell (www.projectinkwell.com) He is also a member of the Steering Committee for Project Inkwell. Prior to joining the National University faculty, he
and the P.I. of the NSF ATE funded Engineering Technology Open-Entry / Open-Exit project at Polk State College. At CLEE, Dr. Roe is responsible for the college’s professional engineering master’s degree programs, engineering professional development, conferences, and customized corporate training. At Polk State Dr. Roe was the Director of Applied Technology and founder of the Manufacturing Talent Development Institute. In these roles he oversaw the shift from a traditional program to a competency-based Open- Entry / Open-Exit Engineering Technology AS degree, served the state through the ManufacturingTDI statewide resource center bridging industry and talent development systems, and served as Co-Principal
several other organizations for a total of more than $2 million. His current research interest focuses on rural community engagement for transportation projects, road user cost, sustainable design and construction for knowledge based decision making, and engineering technology education. He also con- tributed to data analysis methods and cost effective practices of highway construction quality assurance program.Dr. Uddin is a proponent of project based learning and developed innovative teaching strategies to engage his students in solving a real-world problems and prepare them with skills and knowledge that industry requires. Dr. Uddin is a member of ASEE, ASCE, TRB and CRC. Dr. Uddin is active with ASEE engineering
also a broad experience in the glass industry, specifically in fabrication of automotive safety glass. He worked for Vitro Glass Company for more than 19 years where he held different positions such as Process Engineer, Materials Planning and Logistics Manager, Production Superintendent, Manufacturing Engineer and Glass Technologist. During his time in the company, he co-authored two patents related to glass fabrication and glass coatings pro- cessing. Dr. Gonzalez is a Six-Sigma Black Belt and has participated in numerous process improvement projects. He has been trained as well in the Methodology of Inventive Problem Solving (TRIZ) that he applied to solve complex problems. In the manufacturing operations field
audits and condition surveys for various mechanical and electrical and systems. He has conducted several projects to reduce carbon dioxide and other building emission impacts by evaluating and improving the energy practices through the integration of sustainable systems with existing systems. His current research focuses on engaging and educating students in sustainable and green buildings’ design and energy conservation. He is currently investigating various ways to reduce energy consumption in office buildings. American c Society for Engineering Education, 2020 Testing Students’ Knowledge Gain in Active Learning “Lab- Similar” Environment
reveal from one’s personal dimension through images, models, or analogies. • Application: ability to effectively use the information in different contexts. • Perspective: ability to see the big picture through creative critique. Page 13.1155.4 • Empathy: ability to value another’s feelings, perspective, or worldview. • Self-knowledge: ability to perceive our own prejudices as shortcomings.The facets of understanding are not to be confused with the types of assessment, such as informalchecks, observations, quizzes/tests, academic prompts, or performance tasks/projects, but rather,the six facets of understanding are, “a
wide information literacy instruction and collaborator’sprofessional development. The collaborators’ regular meetings to discuss, evaluate, and reflectthe information literacy themed projects have produced campus-wide information literacyperception assessment, inter-institutional grant activities to promote information literacy acrossthe curriculum and seamless integration of information literacy instruction into the course viacourse assignments. For example, the project process and progress of University GeneralEducation general chemistry course information literacy assignment for engineering technologystudents have been shared in various professional communities.5,6,7 In this paper, the authorsexamine their journey to create the successful
− k 2 k 2 u3 F 3 Figure 1 Typical one-dimension spring element problem with its corresponding stiffness matrixModeling techniques that focus on the following topics are emphasized: mesh size, convergence,aspect ratio, poorly shaped elements, boundary conditions, and the use of symmetry. Theremainder of the course deals with the use of various element types and different solution types.Most of these example projects consist of preparing and analyzing finite element models of partsthat have known theoretical solutions. This approach gives students “theoretical benchmarks”against which they can compare their FEA results and also allows them to observe how changesto their models
flexibility in designing their curriculum. This has allowed for theproposed BMET option to be easily accommodated within the EET program. Page 14.454.3III. The EET-BMET Option Approach to Biomedical InstrumentationRecognizing that in order to provide a rounded education for our students, it was imperative thatthey be exposed to actual biomedical instruments used in the medical field, the curriculumincludes a capstone course that can be satisfied by completing either a capstone project in an area Table 1. ECET courses in the BSBMET degree program option. COURSE NAME SEMEST WEEKLY WEEKL
system.Morrison hired their first Purdue University Calumet graduate more than 20 years ago, andPurdue Calumet mechanical or electrical alumni make up more than 50% of Morrison’s current Page 14.82.3engineering staff. With so many graduates, it was inevitable that Morrison would turn to PurdueUniversity Calumet for technical assistance and student projects. Beginning in the spring of2006, faculty at the University completed several projects in the areas of solid modeling,automated manufacturing, and training at Morrison. Technology students must complete an in-depth senior project as a graduation requirement, so student projects in several areas
2006-86: INFORMED DESIGN AS A PRACTICAL PROBLEM SOLVINGAPPROACHChristopher Tomasi, Alfred State College Christopher J. Tomasi is Assistant Professor of Mechanical Engineering Technology at SUNY Alfred State College of Technology. He has served on the leadership team of the New York State Professional Development Collaborative since its inception in 2003.Margaret Weeks, Margaret "Peggie" Weeks is Project Director and Principal Investigator of the Advanced Technological Education/NSF funded New York State Professional Development Collaborative. She is Associate Director of the Center for Technological Literacy at Hofstra University
such as light emitting diodes to more complex holographicoptical elements used to diffuse light in rear projection televisions. This recent exponentialgrowth of photonic technologies has left a deficit of qualified human resources. Traditionally,photonics was only taught at the graduate level. As photonics has moved from the laboratory tocommercial products the need for Associate and Baccalaureate graduates has subsequentlyincreased.In the past, photonics technologies were only used in what is considered high-technologysystems. Today, photonics is used in the thousands of commonly used products to solve avariety of everyday problems. In the last few decades, new ways of transmitting andmanipulating light or photons have been developed. The use
colleagues reported the application of3D printing to enhance military education specifically augmenting military equipmenttheoretical education.3D printing has been used to augment learning in the fluid dynamics and aerodynamicsusing wind tunnel and related experimentation [4,5,6,7]. Matsson [4] and his colleaguesincorporated 3D printing in undergraduate engineering student learning process where ina NACA wing section was 3D printed and tested in a wind tunnel and aerodynamicresults were compared to CFD results using Ansys. They reported that the project was agood example of merging class room learning with practical example creating aneffective learning environment. Linke [5] and his colleagues reported on thedevelopment of including 3d printing in
by institutions. These workshops should be scheduled duringthe regular class periods to facilitate student attendance. These workshops provide directions forcreating ePortfolios. The directions for format and organization of the ePortfolio should beprovided by the instructor of the course utilizing the ePortfolio. Students are likely to struggleinitially but will be quick to grasp the steps.Catalog Artifacts from Different CoursesEvery academic field differs in terms of what artifacts are considered relevant and what shouldbe included in the ePortfolio. For engineering and technology fields, projects and reports ofprojects are considered essential. For journalism, newspaper articles are important. For teachereducation programs, lesson plans
2006-1817: CASE STUDY REVEALS SEVERAL BENEFITS INCLUDINGDEVELOPMENT OF SOFT SKILLS FOR ENGINEERING TECHNOLOGYSTUDENTS AND ASSESSMENT OF KEY TAC-ABET PROGRAM OUTCOMESMohan Ketkar, Prairie View A&M University Dr. Ketkar is an Assistant Professor and coordinator of the Electrical Engineering Technology program at the PVAMU, TX. He received MS and PhD in Electrical Engineering from the University of Wisconsin-Madison. His research areas include communication electronics, instrumentation, and numerical methods. He has been the instructor for senior project courses at University of Houston, TX and PVAMU. He is a member of the College Committee for ABET at the PVAMU. He has participated in several workshops